mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: at least one accelerometer for positioning on a patient, the at least one accelerometer configured to collect acceleration data; and a processor in communication with the at least one accelerometer, the processor configured to receive acceleration data from the at least one accelerometer , wherein the processor is configured to apply a non-linear operator to the acceleration data to determine whether the acceleration data indicates an event, wherein application of the non-linear operator to the acceleration data includes calculation of a non-linear energy of the acceleration data and performance of at least one secondary analysis to determine whether the event is a seizure, characterized in that the non-linear operator is a Lie bracket operator. at least one accelerometer for positioning on a patient, the at least one accelerometer configured to collect acceleration data; and a processor in communication with the at least one accelerometer, the processor configured to receive acceleration data from the at least one accelerometer , wherein the processor is configured to apply a non-linear operator to the acceleration data to determine whether the acceleration data indicates an event, wherein application of the non-linear operator to the acceleration data includes calculation of a non-linear energy of the acceleration data and performance of at least one secondary analysis to determine whether the event is a seizure, characterized in that the non-linear operator is a Lie bracket operator.
A process for manufacturing biomedical components , in particular components for dental use, comprising the steps of: - providing a semi-wafer or partialized wafer comprising at least one respective housing configured to accommodate an insert made to size, - inserting the biomedical component in said insert by way of a computerized system - realizing by way of a 3D printer the insert , said step comprising at least the steps of - realizing a perimeter of the insert, - realizing the biomedical component inside said perimeter , - realizing a plurality of links configured to hook the biomedical component to said perimeter , - inserting the insert made to size into the respective housing so as to realize a composite entire wafer or product of standardized type, - precision milling the biomedical component comprised in the insert. - providing a semi-wafer or partialized wafer comprising at least one respective housing configured to accommodate an insert made to size, - inserting the biomedical component in said insert by way of a computerized system - realizing by way of a 3D printer the insert , said step comprising at least the steps of - realizing a perimeter of the insert, - realizing the biomedical component inside said perimeter , - realizing a plurality of links configured to hook the biomedical component to said perimeter , - realizing a perimeter of the insert, - realizing the biomedical component inside said perimeter , - realizing a plurality of links configured to hook the biomedical component to said perimeter , - inserting the insert made to size into the respective housing so as to realize a composite entire wafer or product of standardized type, - precision milling the biomedical component comprised in the insert.
Rotor for a continuous-flow machine, comprising at least one turbine blade and a securing device for axially and radially securing the turbine blade, wherein the rotor comprises a blade groove and the turbine blade comprises a turbine blade root , wherein the turbine blade root is adapted to the blade groove , wherein the securing device has a retaining piece which is arranged between the blade groove and the turbine blade root , wherein the retaining piece has a surface facing towards the turbine blade root , wherein the surface bears against the turbine blade root , wherein the retaining piece has on the surface a projection which is arranged in a recess in the turbine blade root , wherein the projection engages into the recess in such a way that displacement of the retaining piece in the axial direction is prevented, wherein the securing device has a force spring which exerts on the turbine blade a force, acting in the radial direction, from the rotor , characterized in that the securing device has a plate which is arranged in a second recess in the retaining piece and in a rotor recess , wherein the plate engages into the second recess and into the rotor recess in such a way that displacement of the plate in the axial direction is prevented.
A method for controlling a processor to detect a sleep state from a measured flow of breathable gas, the method of the processor comprising: determining a plurality of respiratory characteristics from a measure of respiratory flow; detecting a state from potential sleep states comprising a Non-REM sleep state and a REM sleep state, the detecting of the state being based on the determined respiratory characteristics by assessing the determined respiratory characteristics with a plurality of thresholds; and indicating the detected state, characterised in that : the plurality of respiratory characteristics from which the sleep state is detected includes a set of two or more of (a) expiratory peak flow variation derived from a plurality of breaths, (b) a ratio of an expiratory peak flow location and expiratory time, wherein the expiratory peak flow location is a time taken to reach expiratory peak flow from beginning of expiration, (c) an expiratory peak flow location variation derived from a plurality of breaths, (d) an area of an expiratory peak flow, (e) an area of an expiratory peak flow variation, (f) a time from expiratory peak flow to inspiration start, (g) a time since last confirmed breath variability, (h) a high breath frequency period, and (i) inspiratory time variability. determining a plurality of respiratory characteristics from a measure of respiratory flow; detecting a state from potential sleep states comprising a Non-REM sleep state and a REM sleep state, the detecting of the state being based on the determined respiratory characteristics by assessing the determined respiratory characteristics with a plurality of thresholds; and indicating the detected state, characterised in that : the plurality of respiratory characteristics from which the sleep state is detected includes a set of two or more of (a) expiratory peak flow variation derived from a plurality of breaths, (b) a ratio of an expiratory peak flow location and expiratory time, wherein the expiratory peak flow location is a time taken to reach expiratory peak flow from beginning of expiration, (c) an expiratory peak flow location variation derived from a plurality of breaths, (d) an area of an expiratory peak flow, (e) an area of an expiratory peak flow variation, (f) a time from expiratory peak flow to inspiration start, (g) a time since last confirmed breath variability, (h) a high breath frequency period, and (i) inspiratory time variability.
A method performed at a license server , the method comprising: determining a renewal time that represents a time prior to a key rotation time, the determining the renewal time based on determining a staggered or a randomized renewal time for a receiver device different from renewal times for other receiver devices , the renewal time enabling the receiver device to request renewal of an initial license for a piece of content; generating an initial license for the piece of content, the initial license comprising a current key that is used to decrypt an encrypted signal comprising the piece of content, the initial license being associated with the renewal time; transmitting via a network, the initial license to the receiver device and transmitting, via the network, the renewal time to the receiver device ; receiving from the receiver device and via the network, a renewal request, the renewal request being received prior to the key rotation time at the renewal time received by the receiver device and requesting renewal of the initial license for the piece of content; in response to receiving the renewal request, generating a next license for the piece of content, the next license comprising a next key, the next key being a decryption key for decrypting the encrypted signal after the key rotation time; and transmitting the next license with the next key to the receiver device prior to the key rotation time. determining a renewal time that represents a time prior to a key rotation time, the determining the renewal time based on determining a staggered or a randomized renewal time for a receiver device different from renewal times for other receiver devices , the renewal time enabling the receiver device to request renewal of an initial license for a piece of content; generating an initial license for the piece of content, the initial license comprising a current key that is used to decrypt an encrypted signal comprising the piece of content, the initial license being associated with the renewal time; transmitting via a network, the initial license to the receiver device and transmitting, via the network, the renewal time to the receiver device ; receiving from the receiver device and via the network, a renewal request, the renewal request being received prior to the key rotation time at the renewal time received by the receiver device and requesting renewal of the initial license for the piece of content; in response to receiving the renewal request, generating a next license for the piece of content, the next license comprising a next key, the next key being a decryption key for decrypting the encrypted signal after the key rotation time; and transmitting the next license with the next key to the receiver device prior to the key rotation time.
A method of analyzing layer thickness of a multilayer component , the method comprising: creating an opening having a predefined geometry partially into the multilayer component at a selected location on a surface of the multilayer component , wherein the multilayer component includes a plurality of material layers including a substrate and a bond coat and the opening exposes each of the plurality of material layers including the substrate ; characterized by creating an image of the exposed plurality of material layers in the opening using a digital microscope ; and calculating at least a thickness of the bond coat and/or a depletion layer , where present, of the exposed plurality of material layers from the image and based on the predefined geometry of the opening , and determining a life expectancy of the bond coat based on the at least one of the thickness of the depletion layer and the thickness of the bond coat . creating an opening having a predefined geometry partially into the multilayer component at a selected location on a surface of the multilayer component , wherein the multilayer component includes a plurality of material layers including a substrate and a bond coat and the opening exposes each of the plurality of material layers including the substrate ; characterized by creating an image of the exposed plurality of material layers in the opening using a digital microscope ; and calculating at least a thickness of the bond coat and/or a depletion layer , where present, of the exposed plurality of material layers from the image and based on the predefined geometry of the opening , and determining a life expectancy of the bond coat based on the at least one of the thickness of the depletion layer and the thickness of the bond coat .
An injection molding method comprising the steps of molding a finished product by injection moldings of a plurality of times and of mounting the finished product molded by injection moldings to a mating part , wherein the finished product molded by injection moldings includes a positioning portion which is fitted to a convex portion or a concave portion of the mating part on which the finished product molded by injection moldings is to be mounted and determines a position between the finished product molded by injection moldings and the mating part , and wherein in one injection molding of the injection moldings of the plurality of times, the entire positioning portion is molded, wherein after a molding product having a notch is molded, the molding product having the notch is disposed in a cavity space of a mold unit as an insert material, the notch is filled with a molding material, and the entire positioning portion is molded in the notch . wherein the finished product molded by injection moldings includes a positioning portion which is fitted to a convex portion or a concave portion of the mating part on which the finished product molded by injection moldings is to be mounted and determines a position between the finished product molded by injection moldings and the mating part , and wherein in one injection molding of the injection moldings of the plurality of times, the entire positioning portion is molded, wherein after a molding product having a notch is molded, the molding product having the notch is disposed in a cavity space of a mold unit as an insert material, the notch is filled with a molding material, and the entire positioning portion is molded in the notch .
An assembling and disassembling device for a vertical split type compressor, wherein the compressor comprises a tubular compressor casing that is positioned horizontally, and a cylindrical bundle that is received insertably and removably on an inner circumferential surface of the compressor casing , the cylindrical bundle comprising and axial end surface , wherein the assembling and diassembling device comprises a plate-like member comprising a threaded hole , and the plate-like member being configured to be connected to the axial end surface of the cylindrical bundle , a threaded-rod member that is configured to insert and remove the bundle into and from the compressor casing by being screwed into the threaded hole provided in the plate-like member and being rotated, characterized by comprising a bundle support member that is configured to be curved along an outer circumferential surface of the cylindrical bundle and that is configured to support the cylindrical bundle from below by being provided below an axial end portion of the compressor casing , wherein the bundle support member has a flange portion at the side which is configured to contact an end surface of the compressor casing , and configured to be connected by fixing the flange portion to said end surface by screws, and wherein one end of the threaded-rod member penetrating the plate-like member is in contact with an opposite end of the bundle support member relative to an end of the flange portion . a tubular compressor casing that is positioned horizontally, and a cylindrical bundle that is received insertably and removably on an inner circumferential surface of the compressor casing , the cylindrical bundle comprising and axial end surface , a plate-like member comprising a threaded hole , and the plate-like member being configured to be connected to the axial end surface of the cylindrical bundle , a threaded-rod member that is configured to insert and remove the bundle into and from the compressor casing by being screwed into the threaded hole provided in the plate-like member and being rotated, characterized by comprising a bundle support member that is configured to be curved along an outer circumferential surface of the cylindrical bundle and that is configured to support the cylindrical bundle from below by being provided below an axial end portion of the compressor casing ,
A method of preparing a casting article for use in manufacturing a gas turbine engine part , comprising the steps of: communicating a powdered material to an additive manufacturing system ; and preparing a casting article that includes at least one trunk (202; 302; 402; 502) and a skin core (204; 304; 404; 504) that extends from the at least one trunk (202; 302; 402; 502) out of the powdered material , wherein at least one of the at least one trunk and the skin core includes a vascular network , wherein the vascular network includes a plurality of nodes and a plurality of branches that extend between each of the plurality of nodes , characterised in that the powdered material includes a ceramic, silica or alumina. communicating a powdered material to an additive manufacturing system ; and preparing a casting article that includes at least one trunk (202; 302; 402; 502) and a skin core (204; 304; 404; 504) that extends from the at least one trunk (202; 302; 402; 502) out of the powdered material , wherein at least one of the at least one trunk and the skin core includes a vascular network , wherein the vascular network includes a plurality of nodes and a plurality of branches that extend between each of the plurality of nodes , characterised in that the powdered material includes a ceramic, silica or alumina.
A bismuth-thiol composition, comprising: a plurality of microparticles that comprise a bismuth-thiol (BT) compound, substantially all of said microparticles having a volumetric mean diameter of from about 0.4 μm to about 5 μm, wherein the BT compound comprises bismuth or a bismuth salt and a thiol-containing compound, wherein the BT compound is not bismuth-pyrithione, and wherein said microparticles are formed by a process that comprises: (a) admixing, under conditions and for a time sufficient to obtain a solution that is substantially free of a solid precipitate, (i) an acidic aqueous solution that comprises a bismuth salt comprising bismuth at a concentration of at least 50 mM and that lacks a hydrophilic, polar or organic solubilizer, with (ii) ethanol in an amount sufficient to obtain an admixture that comprises about 25% ethanol by volume; and (b) adding to the admixture of (a) an ethanolic solution comprising a thiol-containing compound to obtain a reaction solution, wherein the thiol-containing compound is present in the reaction solution at a molar ratio of from about 1:3 to about 3:1 relative to the bismuth, under conditions and for a time sufficient for formation of a precipitate which comprises the microparticles comprising the BT compound. (a) admixing, under conditions and for a time sufficient to obtain a solution that is substantially free of a solid precipitate, (i) an acidic aqueous solution that comprises a bismuth salt comprising bismuth at a concentration of at least 50 mM and that lacks a hydrophilic, polar or organic solubilizer, with (ii) ethanol in an amount sufficient to obtain an admixture that comprises about 25% ethanol by volume; and (b) adding to the admixture of (a) an ethanolic solution comprising a thiol-containing compound to obtain a reaction solution, wherein the thiol-containing compound is present in the reaction solution at a molar ratio of from about 1:3 to about 3:1 relative to the bismuth, under conditions and for a time sufficient for formation of a precipitate which comprises the microparticles comprising the BT compound.
An agricultural baler, in particular a square baler, having at least one working assembly for processing and/or conveying crop , and a drive train for driving the at least one working assembly , wherein at least one energy storage device is associated with the drive train , characterized in that the energy storage device has a variable moment of inertia, wherein the energy storage device has at least one displaceable mass element , the centre of mass of which can be displaced to vary the moment of inertia of the energy storage device in at least the radial direction (R).
A compound comprising the structure shown in Formula I wherein R 1 and R 2 are R 1 = CH 2 (CH 2 ) n OC(=O)R 4 R 2 = CH 2 (CH 2 ) m OC(=O)R 5 wherein n and m are each independently from 1 to 2; and R 4 and R 5 are independently for each occurrence a C(12-20) alkyl group, or a C(12-20) alkenyl group; wherein R 3 is selected from wherein each R 6 is independently selected from H, alkyl, hydroxyl, hydroxyalkyl, alkoxy, alkoxyalkoxy, and aminoalkyl; each R 7 is independently selected from H, alkyl, hydroxyalkyl, and aminoalkyl; Q is O or NR 7 , wherein alkyl is C(1-6)alkyl, hydroxyalkyl is hydroxyl[C(1-6)alkyl], and aminoalkyl is amino [C(1-6)alkyl]. each R 6 is independently selected from H, alkyl, hydroxyl, hydroxyalkyl, alkoxy, alkoxyalkoxy, and aminoalkyl; each R 7 is independently selected from H, alkyl, hydroxyalkyl, and aminoalkyl; Q is O or NR 7 , wherein alkyl is C(1-6)alkyl, hydroxyalkyl is hydroxyl[C(1-6)alkyl], and aminoalkyl is amino [C(1-6)alkyl].
A mask , comprising: a frame , which includes a hollow portion and a border surrounding the hollow portion ; an opening plate , which is provided on the frame and includes an opening and a body surrounding the opening , the opening corresponding to the hollow portion , and the body being connected with the border ; and a pattern plate , which is provided on the opening plate and includes a pattern portion and a non-pattern portion positioned in a periphery of the pattern portion , the pattern portion corresponding to the opening , the non-pattern portion being connected with the body of the opening plate , and the non-pattern portion and the border being separated from each other by the body , characterized in that the opening plate includes a plurality of opening strips , the opening is provided in each opening strip , each opening strip extends along a first direction, the plurality of opening strips are sequentially arranged along a second direction, and the second direction intersects with the first direction, and each opening strip includes a first thinned portion and a second thinned portion which are respectively positioned on two opposite sides of the opening strip , the first thinned portion and the second thinned portion are arranged along the second direction, the first thinned portion and the second thinned portion extend along the first direction, and adjacent thinned portions of adjacent opening strips overlap each other. a frame , which includes a hollow portion and a border surrounding the hollow portion ; an opening plate , which is provided on the frame and includes an opening and a body surrounding the opening , the opening corresponding to the hollow portion , and the body being connected with the border ; and a pattern plate , which is provided on the opening plate and includes a pattern portion and a non-pattern portion positioned in a periphery of the pattern portion , the pattern portion corresponding to the opening , the non-pattern portion being connected with the body of the opening plate , and the non-pattern portion and the border being separated from each other by the body , characterized in that the opening plate includes a plurality of opening strips , the opening is provided in each opening strip , each opening strip extends along a first direction, the plurality of opening strips are sequentially arranged along a second direction, and the second direction intersects with the first direction, and each opening strip includes a first thinned portion and a second thinned portion which are respectively positioned on two opposite sides of the opening strip , the first thinned portion and the second thinned portion are arranged along the second direction, the first thinned portion and the second thinned portion extend along the first direction, and adjacent thinned portions of adjacent opening strips overlap each other.
Toilet cleaning brush with a base body, which has at least one closable liquid container for a cleaning liquid, whereby a manually actuable liquid valve is releasably arranged on the outlet opening of the liquid container and a brush head is releasably arranged on the base body, whereby the brush head is fastened to the base body by means of a click mechanism , the liquid container has a chamber, a liquid valve is arranged on the lower end of the liquid container , the liquid valve is a spring-loaded ball valve , which can be opened in the cleaning state by means of a manually actuable valve linkage , and the ball valve is closed in a liquid-tight manner in the idle state by the spring preload of a valve spring .