mhurhangee/patent-ind-claim-en huggingface dataset:
A prosthetic valve comprising: one or more primary leaflets ; and one or more auxiliary leaflets stored in an inactive state, the one or more auxiliary leaflets being configured to release to an active state upon diametrically expanding the prosthetic valve . one or more primary leaflets ; and one or more auxiliary leaflets stored in an inactive state, the one or more auxiliary leaflets being configured to release to an active state upon diametrically expanding the prosthetic valve .
A mounting system comprising: a mounting line including multiple mounting machines configured to mount components on a board and aligned in a predetermined arrangement direction; a supply device configured to supply members for use in the mounting machines by conveying the members while moving in the arrangement direction; and a display section provided on each of the mounting machines , characterized by each display section having display modes that change in accordance with a position of the corresponding mounting machine with respect to a movement of the supply device . a mounting line including multiple mounting machines configured to mount components on a board and aligned in a predetermined arrangement direction; a supply device configured to supply members for use in the mounting machines by conveying the members while moving in the arrangement direction; and a display section provided on each of the mounting machines , characterized by each display section having display modes that change in accordance with a position of the corresponding mounting machine with respect to a movement of the supply device .
An electronic bypass system for a water softener having a raw water inlet and a bypass outlet, comprising: a valve assembly associated with the water softener including at least one piston ; a gearbox having at least one cam for driving said at least one piston , and a controller in communication with said at least one piston , said at least one piston is configured for controlling water flow in a conduit between the raw water inlet and the bypass outlet in response to a signal from said controller , characterized in that a position feedback gear is provided to be matingly engaged with said at least one cam , said position feedback gear including a plurality of slots , where every set of twelve slots corresponds to a cycle of the water softener, a gear sensor is provided within the gearbox adjacent to the position feedback gear and is configured for sending signals to the controller indicating the position of the cam , wherein, upon receipt of a bypass signal from the controller , said position feedback gear is driven by the controller to determine the amount of movement of the feedback gear required for achieving the bypass condition, and said controller accordingly moves said cam to control said piston for causing water flow to the bypass outlet . a valve assembly associated with the water softener including at least one piston ; a gearbox having at least one cam for driving said at least one piston , and a controller in communication with said at least one piston , said at least one piston is configured for controlling water flow in a conduit between the raw water inlet and the bypass outlet in response to a signal from said controller , characterized in that a position feedback gear is provided to be matingly engaged with said at least one cam , said position feedback gear including a plurality of slots , where every set of twelve slots corresponds to a cycle of the water softener, a gear sensor is provided within the gearbox adjacent to the position feedback gear and is configured for sending signals to the controller indicating the position of the cam , wherein, upon receipt of a bypass signal from the controller , said position feedback gear is driven by the controller to determine the amount of movement of the feedback gear required for achieving the bypass condition, and said controller accordingly moves said cam to control said piston for causing water flow to the bypass outlet .
A blind fastener comprising: a sleeve comprising a distal end portion , a proximal end portion , and a flanged portion at the distal end portion (1 10a), wherein the sleeve defines a bore ; and a core bolt at least partially received in the bore of the sleeve , the core bolt defining a core bolt axis (A C ) and comprising a body and a cap , wherein the body has a distal end portion and a proximal end portion axially opposed from the distal end portion , wherein the body is tapered from the distal end portion of the body to the proximal end portion of the body such that the core bolt causes radial expansion of the sleeve when the body is urged relative to the sleeve through the bore along the core bolt axis (Ac); wherein the cap and flanged portion are arranged such that the sleeve buckles along the flanged portion to form a lip which abuts the cap when the body is urged relative to the sleeve through the bore along the core bolt axis (Ac). a sleeve comprising a distal end portion , a proximal end portion , and a flanged portion at the distal end portion (1 10a), wherein the sleeve defines a bore ; and a core bolt at least partially received in the bore of the sleeve , the core bolt defining a core bolt axis (A C ) and comprising a body and a cap , wherein the body has a distal end portion and a proximal end portion axially opposed from the distal end portion , wherein the body is tapered from the distal end portion of the body to the proximal end portion of the body such that the core bolt causes radial expansion of the sleeve when the body is urged relative to the sleeve through the bore along the core bolt axis (Ac); wherein the cap and flanged portion are arranged such that the sleeve buckles along the flanged portion to form a lip which abuts the cap when the body is urged relative to the sleeve through the bore along the core bolt axis (Ac).
A method for controlling an inverter in a system including an electric load , a motor for driving the load , and the inverter for operating the motor , the method comprising: when a load amount of the load is reduced to below a sleep level, checking whether a time corresponding to a sleep delay has lapsed (S32, S33); when the load amount of the load is still below the sleep level even after the sleep delay, varying (S35) an operating frequency of the motor ; characterized in that the varying comprises decelerating; the method further comprising: if, in response to the variation in the operating frequency, there is no change in a feedback of the load , controlling the inverter to enter a sleep mode wherein the inverter is stopped (S36, S37). when a load amount of the load is reduced to below a sleep level, checking whether a time corresponding to a sleep delay has lapsed (S32, S33); when the load amount of the load is still below the sleep level even after the sleep delay, varying (S35) an operating frequency of the motor ; characterized in that the varying comprises decelerating; the method further comprising: if, in response to the variation in the operating frequency, there is no change in a feedback of the load , controlling the inverter to enter a sleep mode wherein the inverter is stopped (S36, S37).
Spring hinge part for a spectacle frame , with - a receiving element having a longitudinal axis (L), wherein - the receiving element has an end face , wherein - starting from the end face a receiving recess extends into an interior of the receiving element , wherein - the receiving recess is bounded along an imaginary circumferential line at least in regions by a wall of the receiving element and is bounded in the interior of the receiving element by a floor , wherein - two hinge arms , which are spaced apart from one another perpendicularly to the longitudinal axis (L), extend from the end face away from the receiving recess and have mutually aligned hinge bores for receiving a hinge axis , wherein - a spring element is arranged in the receiving recess , which spring element is supported in the receiving recess on the one hand against the floor and on the other hand against a first end of a plunger which can be displaced in the longitudinal direction in the receiving recess , wherein - the plunger protrudes with a second end from the receiving recess and is arranged between the hinge arms , characterised in that - the wall of the receiving element has, at a distance from the end face in the direction of the floor , a deformation introduced into the wall after the plunger has been arranged in the receiving recess , so that - the deformation of the wall projects radially into the receiving recess and forms a stop for the plunger . - a receiving element having a longitudinal axis (L), wherein - the receiving element has an end face , wherein - starting from the end face a receiving recess extends into an interior of the receiving element , wherein - the receiving recess is bounded along an imaginary circumferential line at least in regions by a wall of the receiving element and is bounded in the interior of the receiving element by a floor , wherein - two hinge arms , which are spaced apart from one another perpendicularly to the longitudinal axis (L), extend from the end face away from the receiving recess and have mutually aligned hinge bores for receiving a hinge axis , wherein - a spring element is arranged in the receiving recess , which spring element is supported in the receiving recess on the one hand against the floor and on the other hand against a first end of a plunger which can be displaced in the longitudinal direction in the receiving recess , wherein - the plunger protrudes with a second end from the receiving recess and is arranged between the hinge arms , - the wall of the receiving element has, at a distance from the end face in the direction of the floor , a deformation introduced into the wall after the plunger has been arranged in the receiving recess , so that - the deformation of the wall projects radially into the receiving recess and forms a stop for the plunger .
Mannich base of the formula (I): where X is H or a linear hydrocarbyl radical having 15 carbon atoms, Y is in each case independently a radical of the formula (II) or H or dimethylaminoethyl or methoxy, where at least one of the Y radicals is a radical of the formula (II), R 1 is H or an alkyl radical having 1 to 6 carbon atoms or a phenyl radical, and A is an alkylene radical having 2 to 10 carbon atoms, where the two nitrogen atoms to which the A radical is bonded are separated from one another by at least two carbon atoms. X is H or a linear hydrocarbyl radical having 15 carbon atoms, Y is in each case independently a radical of the formula (II) or H or dimethylaminoethyl or methoxy, where at least one of the Y radicals is a radical of the formula (II), R 1 is H or an alkyl radical having 1 to 6 carbon atoms or a phenyl radical, and A is an alkylene radical having 2 to 10 carbon atoms, where the two nitrogen atoms to which the A radical is bonded are separated from one another by at least two carbon atoms.
An in vitro method for detecting an off-target site in a genome comprising: (a) cleaving an isolated genomic DNA with a target-specific programmable nuclease; (b) performing next generation sequencing of the cleaved DNA; and (c) determining a cleaved site in a sequence read obtained by the sequencing, wherein the method further comprises determining the cleaved site as an off-target site, in case where the cleaved site is not an on-target site, and wherein the cleaved site is a site where the 5' end is vertically aligned by aligning the obtained sequence reads or a site showing double-peak patterns at the 5' end plot, and wherein the method further comprises determining a site where 20% or more of sequence reads is vertically aligned and the number of sequence reads having the same 5' end in each of the Watson and Crick strands is 10 or more as an off-target site. (a) cleaving an isolated genomic DNA with a target-specific programmable nuclease; (b) performing next generation sequencing of the cleaved DNA; and (c) determining a cleaved site in a sequence read obtained by the sequencing, wherein the method further comprises determining the cleaved site as an off-target site, in case where the cleaved site is not an on-target site, and wherein the cleaved site is a site where the 5' end is vertically aligned by aligning the obtained sequence reads or a site showing double-peak patterns at the 5' end plot, and wherein the method further comprises determining a site where 20% or more of sequence reads is vertically aligned and the number of sequence reads having the same 5' end in each of the Watson and Crick strands is 10 or more as an off-target site.
A method for calibrating a technical stage device which is rotatable about a pan axis by entering pan values and pivotable about a tilt axis by entering tilt values and which is arranged above a ground , wherein a. an element is arranged on the ground , said element being adapted to interact with the technical stage device in a certain range of the pan and tilt values, b. the technical stage device is rotated and pivoted by entering tilt and pan values until a pan and tilt value is reached at which the element interacts with the technical stage device, c. wherein i. the technical stage device is either configured as a spotlight and creates an illuminated area on a ground , and the interacting element is configured as a light sensor which detects the edges of the illuminated area , or ii. the technical stage device is configured as a camera which captures an observation area on a ground and the interacting element is configured as a light source, optical marker or the like so that the observation area is detected by detecting the element, characterized in that d. a mapping assignment of the pan values and/or tilt values to the angular coordinates of the technical stage device is determined by repeatedly rotating and/or pivoting the technical stage device and detecting the interaction of the technical stage device with the element. a. an element is arranged on the ground , said element being adapted to interact with the technical stage device in a certain range of the pan and tilt values, b. the technical stage device is rotated and pivoted by entering tilt and pan values until a pan and tilt value is reached at which the element interacts with the technical stage device, c. wherein i. the technical stage device is either configured as a spotlight and creates an illuminated area on a ground , and the interacting element is configured as a light sensor which detects the edges of the illuminated area , or ii. the technical stage device is configured as a camera which captures an observation area on a ground and the interacting element is configured as a light source, optical marker or the like so that the observation area is detected by detecting the element, characterized in that i. the technical stage device is either configured as a spotlight and creates an illuminated area on a ground , and the interacting element is configured as a light sensor which detects the edges of the illuminated area , or ii. the technical stage device is configured as a camera which captures an observation area on a ground and the interacting element is configured as a light source, optical marker or the like so that the observation area is detected by detecting the element, d. a mapping assignment of the pan values and/or tilt values to the angular coordinates of the technical stage device is determined by repeatedly rotating and/or pivoting the technical stage device and detecting the interaction of the technical stage device with the element.
A computer-implemented method for quantifying diastolic function, the method comprising: receiving one or more electrocardiograms measured for a patient; converting the one or more electrocardiograms, using time-frequency transform, into time-frequency features; operating one or more machine-learned computational models on input comprising the time-frequency features to compute an estimate or estimates of one or more echocardiogram parameters indicative of diastolic function, the one or more machine-learned computational models having been trained using electrocardiogram data correlated with values of the one or more echocardiogram parameters obtained by echocardiography as ground-truth outputs; characterized by further comprising computing one or more additional indicators of diastolic function by operating one or more second machine-learned computational models on input comprising the estimate or estimates of the one or more echocardiogram parameters; wherein the one or more second machine-learned computational models comprise one or more ensemble models, and the one or more additional indicators of diastolic function comprise at least one of a left ventricular relaxation risk score, a lateral left ventricular relaxation index, a septal left ventricular relaxation index, or a composite left ventricular relaxation index. receiving one or more electrocardiograms measured for a patient; converting the one or more electrocardiograms, using time-frequency transform, into time-frequency features; operating one or more machine-learned computational models on input comprising the time-frequency features to compute an estimate or estimates of one or more echocardiogram parameters indicative of diastolic function, the one or more machine-learned computational models having been trained using electrocardiogram data correlated with values of the one or more echocardiogram parameters obtained by echocardiography as ground-truth outputs; characterized by further comprising computing one or more additional indicators of diastolic function by operating one or more second machine-learned computational models on input comprising the estimate or estimates of the one or more echocardiogram parameters; wherein the one or more second machine-learned computational models comprise one or more ensemble models, and the one or more additional indicators of diastolic function comprise at least one of a left ventricular relaxation risk score, a lateral left ventricular relaxation index, a septal left ventricular relaxation index, or a composite left ventricular relaxation index.
System for testing the proper functioning of an atomiser for dispensing a fluid in the form of an aerosol , wherein the system comprises the atomiser and an automated test apparatus , wherein the atomiser comprises a preferably insertable and particularly preferably replaceable container holding the fluid , and a housing part , the container being movable relative to the housing part in order to dispense the fluid , and wherein the automated test apparatus comprises a measuring device for measuring the movement of the container , in particular of the container bottom , when the fluid is dispensed, wherein the system comprises a data processing device that is or can be connected to the measuring device , characterised in that the data processing device is designed to analyse measured values detected by the measuring device and to compare them with target values and/or limits and to automatically identify the atomiser as being faulty when the measurements detected for it do not comply with the target values and/or are outside a range defined by the limits, and in that the system comprises an ejection device into which the atomiser is automatically slid and/or automatically discarded once detected as being faulty. wherein the system comprises the atomiser and an automated test apparatus , wherein the atomiser comprises a preferably insertable and particularly preferably replaceable container holding the fluid , and a housing part , the container being movable relative to the housing part in order to dispense the fluid , and wherein the automated test apparatus comprises a measuring device for measuring the movement of the container , in particular of the container bottom , when the fluid is dispensed, wherein the system comprises a data processing device that is or can be connected to the measuring device , characterised in that the data processing device is designed to analyse measured values detected by the measuring device and to compare them with target values and/or limits and to automatically identify the atomiser as being faulty when the measurements detected for it do not comply with the target values and/or are outside a range defined by the limits, and in that the system comprises an ejection device into which the atomiser is automatically slid and/or automatically discarded once detected as being faulty.
Method for optical distance measurement, in particular by means of time-correlated individual photon counting, wherein several optical measuring pulses are emitted by at least one transmitter , wherein the optical measuring pulses are reflected on an object, wherein photons of the reflected optical measuring pulses are detected by at least one receiver , wherein a first distribution of light propagation times of the detected photons is determined, wherein the first distribution of light propagation times is stored in a first storage area of a storage unit , wherein the first distribution of light propagation times is assigned to time intervals of a first plurality of time intervals, wherein in a reduction step frequency components of the first distribution of light propagation times above a predetermined limit frequency are reduced or suppressed by means of a low-pass filter , so that a second distribution of light propagation times is generated, characterized in that the second distribution of light propagation times is assigned to time intervals of a second plurality of time intervals, and that a blocking frequency of the low-pass filter is selected to be smaller than or equal to half the reciprocal value of a smallest interval width of the second plurality of time intervals. wherein in a reduction step frequency components of the first distribution of light propagation times above a predetermined limit frequency are reduced or suppressed by means of a low-pass filter , so that a second distribution of light propagation times is generated, characterized in that the second distribution of light propagation times is assigned to time intervals of a second plurality of time intervals, and that a blocking frequency of the low-pass filter is selected to be smaller than or equal to half the reciprocal value of a smallest interval width of the second plurality of time intervals.
An electronic device (20; 30) comprising: a solid body , in particular including Silicon Carbide; a gate terminal , extending into the solid body ; a conductive path , extending at a first side of the solid body , configured to be electrically coupeable to a generator of a biasing voltage (V GS ) of said gate terminal ; a protection element of a solid-state material, coupled to the gate terminal and to the conductive path , the protection element forming an electrical connection between the gate terminal and the conductive path , and being configured to go from the solid state to a melted or gaseous state, interrupting said electrical connection, in response to a leakage current (i SC ) through said protection element greater than a critical threshold, characterized in that it further comprises a buried cavity in the solid body accommodating, at least in part, said protection element . a solid body , in particular including Silicon Carbide; a gate terminal , extending into the solid body ; a conductive path , extending at a first side of the solid body , configured to be electrically coupeable to a generator of a biasing voltage (V GS ) of said gate terminal ; a protection element of a solid-state material, coupled to the gate terminal and to the conductive path , the protection element forming an electrical connection between the gate terminal and the conductive path , and being configured to go from the solid state to a melted or gaseous state, interrupting said electrical connection, in response to a leakage current (i SC ) through said protection element greater than a critical threshold, characterized in that it further comprises a buried cavity in the solid body accommodating, at least in part, said protection element .