mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device comprising: a first interface to receive heartbeat data of a patient; a second interface to receive activity data of the patient, wherein the activity data includes one or more activity values that are related to an activity level of the patient and that are measured independently of the heartbeat data and includes accelerometer data, body temperature data, electromyography data, perspiration data, impedance data, or a combination thereof; and a processor configured to: determine a value of a weighting factor based on the activity data ; determine modified heartbeat data by applying the weighting factor to at least a portion of the heartbeat data; and detect a seizure event based on the modified heartbeat data, characterised in that the determining the modified heartbeat data includes determining a background, BG, heart rate based on a previously-determined BG heart rate, a most recent R-R interval of the heartbeat data, and the weighting factor. a first interface to receive heartbeat data of a patient; a second interface to receive activity data of the patient, wherein the activity data includes one or more activity values that are related to an activity level of the patient and that are measured independently of the heartbeat data and includes accelerometer data, body temperature data, electromyography data, perspiration data, impedance data, or a combination thereof; and a processor configured to: determine a value of a weighting factor based on the activity data ; determine modified heartbeat data by applying the weighting factor to at least a portion of the heartbeat data; and detect a seizure event based on the modified heartbeat data, characterised in that the determining the modified heartbeat data includes determining a background, BG, heart rate based on a previously-determined BG heart rate, a most recent R-R interval of the heartbeat data, and the weighting factor. determine a value of a weighting factor based on the activity data ; determine modified heartbeat data by applying the weighting factor to at least a portion of the heartbeat data; and detect a seizure event based on the modified heartbeat data, characterised in that the determining the modified heartbeat data includes determining a background, BG, heart rate based on a previously-determined BG heart rate, a most recent R-R interval of the heartbeat data, and the weighting factor.
A vapour provision system comprising: a heating element for generating a vapour from a vapour precursor material; and control circuitry configured to provide power for the heating element for performing a heating operation to generate the vapour and to compare a measurement of a resistance value for the heating element for the heating operation with a predetermined threshold resistance value for the heating element for use in detecting a fault condition, wherein the control circuitry is further configured to: monitor the resistance of the heating element during at least one heating operation of the heating element to determine a plurality of monitored resistance values over a period of time; compare each of the plurality of monitored resistance values with the predetermined threshold resistance value; and detect a fault condition for the heating element based on the comparison of the plurality of monitored resistance values with the predetermined threshold resistance value, wherein the control circuitry is configured to detect said fault condition for the heating element in the event a plurality of the monitored resistance values exceed the predetermined threshold resistance value during the period of time. a heating element for generating a vapour from a vapour precursor material; and control circuitry configured to provide power for the heating element for performing a heating operation to generate the vapour and to compare a measurement of a resistance value for the heating element for the heating operation with a predetermined threshold resistance value for the heating element for use in detecting a fault condition, wherein the control circuitry is further configured to: monitor the resistance of the heating element during at least one heating operation of the heating element to determine a plurality of monitored resistance values over a period of time; compare each of the plurality of monitored resistance values with the predetermined threshold resistance value; and detect a fault condition for the heating element based on the comparison of the plurality of monitored resistance values with the predetermined threshold resistance value, wherein the control circuitry is configured to detect said fault condition for the heating element in the event a plurality of the monitored resistance values exceed the predetermined threshold resistance value during the period of time. monitor the resistance of the heating element during at least one heating operation of the heating element to determine a plurality of monitored resistance values over a period of time; compare each of the plurality of monitored resistance values with the predetermined threshold resistance value; and detect a fault condition for the heating element based on the comparison of the plurality of monitored resistance values with the predetermined threshold resistance value, wherein the control circuitry is configured to detect said fault condition for the heating element in the event a plurality of the monitored resistance values exceed the predetermined threshold resistance value during the period of time.
A fastening device for the inner conductors (20, 20-1...20-8) on a stripped end of a sheathed cable , comprising: a lead-through opening with an inlet side and an outlet side for leading through the end of the sheathed cable in an axial direction (A); a plurality of holding devices (70, 70-1...70-8), which respectively serve for holding an inner conductor (20, 20-1...20-8) and are arranged radially around the lead-through opening on the outlet side of the lead-through opening , wherein at least one holding device (70, 70-1...70-8), typically all holding devices (70, 70-1...70-8), respectively comprises or comprise an axial clamping device, and wherein the axial clamping device is designed for holding an inserted inner conductor (20, 20-1...20-8) in a clamping manner when it is acted upon with a force in the axial direction (A), characterized in that the plurality of holding devices (70, 70-1...70-8) are realized in the form of claws , and in that each claw has a contact surface for the inner conductor (20, 20-1...20-8), wherein said contact surface essentially extends in the axial direction (A). a lead-through opening with an inlet side and an outlet side for leading through the end of the sheathed cable in an axial direction (A); a plurality of holding devices (70, 70-1...70-8), which respectively serve for holding an inner conductor (20, 20-1...20-8) and are arranged radially around the lead-through opening on the outlet side of the lead-through opening , wherein at least one holding device (70, 70-1...70-8), typically all holding devices (70, 70-1...70-8), respectively comprises or comprise an axial clamping device, and wherein the axial clamping device is designed for holding an inserted inner conductor (20, 20-1...20-8) in a clamping manner when it is acted upon with a force in the axial direction (A), characterized in that the plurality of holding devices (70, 70-1...70-8) are realized in the form of claws , and in that each claw has a contact surface for the inner conductor (20, 20-1...20-8), wherein said contact surface essentially extends in the axial direction (A).
A method for acceptance testing and commissioning a LINAC, linear accelerator, said method comprising: collecting first reference data from a reference machine (120; 122; 124) composed of a LINAC, linear accelerator, and electronic portal imaging device, EPID, wherein said reference data represents at least changes in radiation measurement at said EPID of said reference machine (120; 122; 124) in relation to changes in parameters of said LINAC of said reference machine (120; 122; 124); storing said first reference data in a memory associated with at least one processor; collecting machine performance data from a testing machine composed of a LINAC and EPID wherein said machine performance data represents at least changes in radiation measurement at said EPID of said testing machine in relation to changes in parameters of said LINAC of said testing machine ; comparing, with an analysis software program , said first reference data with said machine performance data to assess accuracy of said testing machine wherein said processor is configured to execute said analysis software program , and generating, with the analysis software program , a report including a pass/fail status of said assessed accuracy of said testing machine . collecting first reference data from a reference machine (120; 122; 124) composed of a LINAC, linear accelerator, and electronic portal imaging device, EPID, wherein said reference data represents at least changes in radiation measurement at said EPID of said reference machine (120; 122; 124) in relation to changes in parameters of said LINAC of said reference machine (120; 122; 124); storing said first reference data in a memory associated with at least one processor; collecting machine performance data from a testing machine composed of a LINAC and EPID wherein said machine performance data represents at least changes in radiation measurement at said EPID of said testing machine in relation to changes in parameters of said LINAC of said testing machine ; comparing, with an analysis software program , said first reference data with said machine performance data to assess accuracy of said testing machine wherein said processor is configured to execute said analysis software program , and generating, with the analysis software program , a report including a pass/fail status of said assessed accuracy of said testing machine .
A method for producing dual-color LEDs and/or multi-color LEDs by lamination of LEDs with colored phosphor film, comprising: laminating two or more LEDs with two or more colored phosphor films by one step film lamination thereby producing dual and/or multi-color LEDs from two or more LEDs and two or more colored phosphor films in one step; wherein each of the colored phosphor films comprises each respectively a different colored phosphor composition which has a Maximum tan δ; and the difference of each Maximum tan δ varies within a range of 0-30%, each colored phosphor composition comprising a silicone binder. laminating two or more LEDs with two or more colored phosphor films by one step film lamination thereby producing dual and/or multi-color LEDs from two or more LEDs and two or more colored phosphor films in one step; wherein each of the colored phosphor films comprises each respectively a different colored phosphor composition which has a Maximum tan δ; and the difference of each Maximum tan δ varies within a range of 0-30%, each colored phosphor composition comprising a silicone binder.
An integrated electric power steering apparatus in which a control unit for controlling a motor is disposed inside a housing , said control unit is disposed so as to be coaxial to an output shaft of said motor , and in which said control unit and said motor are integrated, characterized in that : said control unit includes a circuit board and an intermediate member ; main parts are mounted to said circuit board ; wiring is disposed on said intermediate member ; said circuit board and said intermediate member are stacked; said parts are mounted to first and second surfaces of said circuit board ; and a portion of said housing and first surfaces of said parts are placed in direct contact or are placed in contact so as to have a heat-transferring member interposed, characterized in that said intermediate member comprises a plurality of busbars for wiring; a surface of said intermediate member that faces said circuit board comprises a projecting portion ; and said projecting portion is placed in contact with said parts or said circuit board . said control unit includes a circuit board and an intermediate member ; main parts are mounted to said circuit board ; wiring is disposed on said intermediate member ; said circuit board and said intermediate member are stacked; said parts are mounted to first and second surfaces of said circuit board ; and a portion of said housing and first surfaces of said parts are placed in direct contact or are placed in contact so as to have a heat-transferring member interposed, characterized in that said intermediate member comprises a plurality of busbars for wiring; a surface of said intermediate member that faces said circuit board comprises a projecting portion ; and said projecting portion is placed in contact with said parts or said circuit board .
A clamping system , comprising: a clamp having a plurality of clamp segments with radially inward surfaces shaped to secure mating hubs together, the clamp segments being pivotably coupled to each other; an actuator coupled to the clamp to selectively shift the clamp between an open position in which the clamp segments are expanded apart and a closed position in which the clamp segments are contracted together to enable securing of the engagement between the mating hubs; and a driver coupled to the actuator to move the actuator when opening or closing the clamp, the actuator providing mechanical advantage relative to the driver alone so as to increase clamping force when the clamp is actuated to the closed position, wherein the driver comprises a lead screw, characterized in that the actuator comprises a scissor mechanism coupled to the lead screw and to a drive linkage , the drive linkage moving to actuate the clamp as the scissor mechanism is shifted via rotation of the lead screw. a clamp having a plurality of clamp segments with radially inward surfaces shaped to secure mating hubs together, the clamp segments being pivotably coupled to each other; an actuator coupled to the clamp to selectively shift the clamp between an open position in which the clamp segments are expanded apart and a closed position in which the clamp segments are contracted together to enable securing of the engagement between the mating hubs; and a driver coupled to the actuator to move the actuator when opening or closing the clamp, the actuator providing mechanical advantage relative to the driver alone so as to increase clamping force when the clamp is actuated to the closed position, wherein the driver comprises a lead screw, characterized in that the actuator comprises a scissor mechanism coupled to the lead screw and to a drive linkage , the drive linkage moving to actuate the clamp as the scissor mechanism is shifted via rotation of the lead screw.
A genetically modified rat comprising an inactivated endogenous Cfh locus, wherein the rat is homozygous for the inactivated endogenous Cfh locus and has one or more symptoms of C3 glomerulopathy (C3G).
A support structure for a wind turbine blade comprising a frame structure comprising a first section and a second section which are spaced apart with respect to each other along a first direction such that a section of a wind turbine blade is arrangeable in-between the first section and the second section , a first seesaw element being pivotably fixed to the first section , and having a first pivoting axis parallel to the first direction , a second seesaw element being pivotably fixed to the second section , and having a second pivoting axis parallel to the first direction , a first belt element being fixed with its first end to a first end of the first seesaw element , a second belt element being fixed with its first end to a first end of the second seesaw element , a third belt element being fixed with its first end to a second end of the first seesaw element , and a fourth belt element being fixed with its first end to a second end of the second seesaw element , wherein the first end and the second end of the first seesaw element are on opposite sides relatively to the first pivoting axis , wherein the first end and the second end of the second seesaw element are on opposite sides relatively to the second pivoting axis , and wherein a second end of the first belt element and a second end of the third belt element are each fixed to the second section of the frame structure , and a second end of the second belt element and a second end of the fourth belt element are each fixed to the first section of the frame structure .
A control system of a gas turbine comprising: a state detection stage , providing state signals (S0, ..., SN) representing respective operational quantities of the gas turbine ; a first monitoring module , receiving a first subset (SS1) of the state signals (S0, ..., SN) and configured to detect occurrences of critical events as a function of values of the state signals (S0, ..., SN) of the first subset (SS1); a state registration module , receiving a second subset (SS2) of the state signals (S0, ..., SN) and configured to associate critical states (CS) to the occurrences of critical events detected by the first monitoring module , the critical states (CS) being defined by respective values of the state signals (S0, ..., SN) of the second subset (SS2), the respective values preceding occurrences of the critical events and temporarily stored; a first database , defining associations between identifiers (ID) of critical events and corrective actions (ACT) defined by groups of instructions to be executed in response to occurrences of respective critical events; a self-learning module , configured to correlate critical states (CS) and corrective actions (ACT) as a function of the associations between critical states (CS) and critical events produced by the state registration module and of the associations between corrective actions (ACT) and critical events contained in the first database . a state detection stage , providing state signals (S0, ..., SN) representing respective operational quantities of the gas turbine ; a first monitoring module , receiving a first subset (SS1) of the state signals (S0, ..., SN) and configured to detect occurrences of critical events as a function of values of the state signals (S0, ..., SN) of the first subset (SS1); a state registration module , receiving a second subset (SS2) of the state signals (S0, ..., SN) and configured to associate critical states (CS) to the occurrences of critical events detected by the first monitoring module , the critical states (CS) being defined by respective values of the state signals (S0, ..., SN) of the second subset (SS2), the respective values preceding occurrences of the critical events and temporarily stored; a first database , defining associations between identifiers (ID) of critical events and corrective actions (ACT) defined by groups of instructions to be executed in response to occurrences of respective critical events; a self-learning module , configured to correlate critical states (CS) and corrective actions (ACT) as a function of the associations between critical states (CS) and critical events produced by the state registration module and of the associations between corrective actions (ACT) and critical events contained in the first database .
A method for producing deuterium-depleted water by removing heavy water and semi-heavy water from water, comprising separating water into light water, and heavy water and semi-heavy water, by maintaining air pressure around a predetermined adsorbent which has adsorbed water vapor in a range in which light water is desorbed and heavy water or semi-heavy water is not easily desorbed, and desorbing the light water vapor from the adsorbent , and further, recovering the water vapor desorbed from the adsorbent .
A double-agent essence, comprising oil gel and hydrogel, wherein the oil gel and the hydrogel are mixed according to any ratio during use; and the oil gel comprises the following components in% parts by weight: 0.1-6 parts of active ingredient; 15-35 parts of polyol comprising glycerin; 0.1-0.5 parts of SODIUM SURFACTIN; 40-65 parts of oil; and 1-10 parts of water, and wherein the oil gel is prepared by a D-phase emulsification method, and wherein the oil is any combination of PRUNUS AMYGDALUS DULCIS oil, Canola oil, Cl5-19 alkanes, SIMMONDSIA CHINENSIS seed oil, sunflower seed oil, soybean oil, squalane, octyldodecanol, mineral oil, dimethylsiloxane and cyclomethicone.
A method of manufacturing a container consisting of a stiff outer container and a readily deformable inner bag of thermoplastic plastic materials which do not form a weld connection with one another, including a container opening and at least one wall opening in the outer container, through which a pressure balance occurs in the gap between the inner bag and the outer container , wherein a preform consisting of at least two tubes is coextruded and is arranged between the open halves of a blow mould and the blow mould is closed when the preform has the length necessary for the manufacture of the container, wherein excess material in the base region of the container to be manufactured is squeezed out and a pinch seam is formed, which has a base web of welded material of the outer container, in which the welded base seam of the inner bag is clamped and is held in the axial direction, and the preform is inflated by a pressure medium into engagement with the wall of the blow mould and is removed from the blow mould, characterised by the following steps: a) removing a section of the base web of the outer container so that a section of the base seam of the inner bag is exposed to the exterior; b) raising the exposed section of the base seam into the outer container so that an opening is produced between the base seam of the inner bag and the outer container , c) introducing a pressure medium into the opening, whereby the inner bag becomes detached on both sides from the outer container , d) supplying a pressure medium into the container opening so that the inner bag again engages the outer container. a) removing a section of the base web of the outer container so that a section of the base seam of the inner bag is exposed to the exterior; b) raising the exposed section of the base seam into the outer container so that an opening is produced between the base seam of the inner bag and the outer container , c) introducing a pressure medium into the opening, whereby the inner bag becomes detached on both sides from the outer container , d) supplying a pressure medium into the container opening so that the inner bag again engages the outer container.
Flow cell having a pipe section which extends along a longitudinal axis and at the ends of which an inlet opening and an opposite outlet opening are arranged, having a first electrode which is arranged coaxially at least in sections in the pipe section which first electrode is coaxially surrounded by a spaced-apart second electrode , wherein the pipe section is formed by a first pipe section and a second pipe section and a circumferentially closed second electrode arranged between the first and second pipe sections , wherein a first and a second radial carrier are arranged adjacent to the ends of the first tube section and the second tube section opposite the second electrode , and the first electrode is fixed to the first and second radial carriers , at least one of which is electrically conductively connected to the first electrode , and the first and second radial carriers are braced towards each other by means of the first electrode . wherein a first and a second radial carrier are arranged adjacent to the ends of the first tube section and the second tube section opposite the second electrode , and the first electrode is fixed to the first and second radial carriers , at least one of which is electrically conductively connected to the first electrode , and the first and second radial carriers are braced towards each other by means of the first electrode .