mhurhangee/ep-ind-claims huggingface dataset:
A pressure relief assembly for a regulator, the pressure relief assembly comprising: an actuator stem having a plurality of relief retaining grooves (92a-c); a relief plate operatively connected to the actuator stem; a diaphragm plate operatively connected to the actuator stem; a diaphragm at least partially disposed between the relief plate and the diaphragm plate; a retaining clip disposed in one of the retaining grooves (92a-c); a relief spring seat releasably attached to the actuator stem at one of the plurality of retaining grooves (92a-c) with the retaining clip; a relief spring disposed on the actuator stem, wherein the relief spring is disposed between the relief spring seat and the relief plate; and a plate attachment flange on the actuator stem, the plate attachment flange co-operating with an opening in the relief plate to slidably retain the relief plate on the actuator stem. an actuator stem having a plurality of relief retaining grooves (92a-c); a relief plate operatively connected to the actuator stem; a diaphragm plate operatively connected to the actuator stem; a diaphragm at least partially disposed between the relief plate and the diaphragm plate; a retaining clip disposed in one of the retaining grooves (92a-c); a relief spring seat releasably attached to the actuator stem at one of the plurality of retaining grooves (92a-c) with the retaining clip; a relief spring disposed on the actuator stem, wherein the relief spring is disposed between the relief spring seat and the relief plate; and a plate attachment flange on the actuator stem, the plate attachment flange co-operating with an opening in the relief plate to slidably retain the relief plate on the actuator stem.
A method of determining the volume of a blood drop, the blood drop having a top and a side, the method comprising: illuminating the side and the top of the blood drop with a light from a light source; directing light reflected off the side and off the top of the blood drop to a light sensor; measuring the amount of light reflected off the side and off the top of the blood drop with the light sensor, wherein the amount of light reflected off the side of the blood drop correlates to a height of the blood drop and the amount of light reflected off the top of the blood drop correlates to a diameter measurement of the blood drop; and calculating the volume of the blood drop from a height measurement of the blood drop and a diameter measurement of the blood drop. illuminating the side and the top of the blood drop with a light from a light source; directing light reflected off the side and off the top of the blood drop to a light sensor; measuring the amount of light reflected off the side and off the top of the blood drop with the light sensor, wherein the amount of light reflected off the side of the blood drop correlates to a height of the blood drop and the amount of light reflected off the top of the blood drop correlates to a diameter measurement of the blood drop; and calculating the volume of the blood drop from a height measurement of the blood drop and a diameter measurement of the blood drop.
Multi-channel audio decoder for processing a downmix audio signal derived in a matrix compatible way and for processing first parametric data describing a first portion of a multi-channel signal, wherein for a second portion of the multi-channel signal no parametric data or second parametric data is processed, the second parametric data requiring less information units than the first parametric data when describing an identical portion of the multi-channel signal, comprising: a processor for deriving an intermediate signal from the downmix audio signal, the downmix audio signal being in a QMF, Quadrature Mirror Filterbank, representation, using a first deriving rule for deriving a first portion of the intermediate signal, the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, wherein the first deriving rule is depending on the first parametric data; and using a second deriving rule for deriving a second portion of the intermediate signal, the second deriving rule using no parametric data or the second parametric data, wherein the first portion is a time portion or a frequency portion. using a first deriving rule for deriving a first portion of the intermediate signal, the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, wherein the first deriving rule is depending on the first parametric data; and using a second deriving rule for deriving a second portion of the intermediate signal, the second deriving rule using no parametric data or the second parametric data, wherein the first portion is a time portion or a frequency portion.
Channel storage system having one or more channels with guide rails, comprising: a control unit; a shuttle having an intrinsically safe vehicle controller with a checking unit for communicating with the control unit; marker means (7, 9, 11) along the channel; the shuttle having sensors for orienting the shuttle within the channel using the marker means (7, 9, 11); which marker means (7, 9, 11) comprise holes in the rails, and the shuttle has at least two light sensors for scanning the holes in the rails; characterised in that the channel end is marked by means of two holes lying adjacent to one another or one above the other so that the at least two light sensors scan the two holes. a control unit; a shuttle having an intrinsically safe vehicle controller with a checking unit for communicating with the control unit; marker means (7, 9, 11) along the channel; the shuttle having sensors for orienting the shuttle within the channel using the marker means (7, 9, 11); which marker means (7, 9, 11) comprise holes in the rails, and the shuttle has at least two light sensors for scanning the holes in the rails; characterised in that the channel end is marked by means of two holes lying adjacent to one another or one above the other so that the at least two light sensors scan the two holes.
Rotary clothes dryer with a mast, a sliding joint moveable back and forth along a sliding section of the mast for opening and closing the rotary clothes dryer, on which support arms carrying clotheslines are pivotably mounted, which are spread out by means of a spreading mechanism when the sliding joint is pushed upwards and folded inwards towards the mast when the sliding joint is moved downwards when closing the rotary clothes dryer, and with a pull-up line fitted to the rotary clothes dryer above the sliding section with one pulling end and guided on the mast and via a guide on the sliding joint in such a way that a traction load acting on the pull-up line pulls the sliding joint upwards, wherein the pull-up line has a length that is sized in such a way that the pull-up line can be guided into a grip position located above the sliding joint when the rotary clothes dryer is closed, and a holding means is envisaged, which can hold the pulling end of the pull-up line in the grip position when the rotary clothes dryer is closed, characterised in that the holding means has a pull-up line intake in the form of a pulling means, connected on one side with one of the support arms or the mast, and connected with an opposite end of the pull-up line, which can be pulled away from the support arm or the mast when putting up the rotary clothes dryer and can retract the pulling end into the grip position when the traction load is removed.
A vehicle alarm system comprising a device for operating a sounder to produce a plurality of different alarm sounds, the device comprising a means (9,22) to provide a plurality of selectable discrete signal trains configured for applying to the sounder to operate the sounder to produce respective different alarm sounds, each discrete signal train being configured so that when that discrete signal train is applied to the sounder, the sound pattern of the alarm sound produced by the sounder is different to the sound patterns of the alarm sounds produced by the sounder when the other ones of the respective discrete signal trains are applied to the sounder, a selector (8,10) configured to select the discrete signal trains for applying to the sounder, and a control means responsive to each occurrence of an activation signal (11,25) derived from one of commencement of movement of the vehicle, engagement of a drive gear of the vehicle, activation of a drive switch of the vehicle, and detection of a person or object in or near the path of traverse of the vehicle, to operate the selector (8,10) to select the discrete signal trains, and to apply the selected discrete signal train to the sounder, characterised in that a storing means (9,22) stores the plurality of the selectable discrete signal trains in the form of selectable discrete data signals cross-referenced with respective unique identifier codes for facilitating selection of the respective discrete data signals, and the selector (8,10) is configured to select the discrete data signal from the storing means (9,22) to be applied to the sounder in one of a predefined order and a random order.
A module for mounting within a ceiling panel assembly, the module comprising: an upper mounting frame that includes a main body portion that defines a central opening, wherein the main body portion includes a flange extending outwardly therefrom, and wherein the upper mounting frame includes a first end and a second end, a lower mounting frame that is at least partially received in the central opening of the upper mounting frame, wherein the lower mounting frame includes a first end and a second end, wherein the lower mounting frame is pivotable with respect to the upper mounting frame between a first position and a second position, and a latch assembly that is associated with the first end of the upper mounting frame and the lower mounting frame, wherein when the latch assembly is released the lower mounting frame pivots from the first position to the second position; wherein the latch assembly includes a latch member that is mounted within a protrusion on the upper mounting frame and a ledge that is disposed on the lower mounting frame; and wherein the protrusion defines a latch pocket in which an engagement surface on the latch member is positioned, and wherein the engagement surface is accessible via an opening defined in the protrusion. an upper mounting frame that includes a main body portion that defines a central opening, wherein the main body portion includes a flange extending outwardly therefrom, and wherein the upper mounting frame includes a first end and a second end, a lower mounting frame that is at least partially received in the central opening of the upper mounting frame, wherein the lower mounting frame includes a first end and a second end, wherein the lower mounting frame is pivotable with respect to the upper mounting frame between a first position and a second position, and a latch assembly that is associated with the first end of the upper mounting frame and the lower mounting frame, wherein when the latch assembly is released the lower mounting frame pivots from the first position to the second position; wherein the latch assembly includes a latch member that is mounted within a protrusion on the upper mounting frame and a ledge that is disposed on the lower mounting frame; and wherein the protrusion defines a latch pocket in which an engagement surface on the latch member is positioned, and wherein the engagement surface is accessible via an opening defined in the protrusion.
A computer-implemented method for determining rock and fluid-type parameters of a subsurface region from measured seismic reflection data corresponding to a plurality of offsets, said method comprising: a. pre-processing the measured reflection data into a plurality of partial stacks; b. specifying a wavelet for each of the stacks; c. constructing (13; 15) a linearized set of reflectivity equations that relate seismic reflectivity to changes in elastic parameters of said subsurface region; characterized in that the measured seismic reflection data correspond to a plurality of offsets at a single trace location and in that said method further comprises: d. constructing (14; 16) a linearized set of rock physics equations that relate changes in the elastic parameters to the rock and fluid-type parameters; e. combining the linearized reflectivity equations with the linearized rock physics equations; f. forming matrix equations by convolving the specified wavelets with the combined set of equations and equating to the measured data; and g. inverting the matrix equations to solve by numerical methods for said rock and fluid-type parameters, said solution being for all offsets simultaneously at the single trace location. a. pre-processing the measured reflection data into a plurality of partial stacks; b. specifying a wavelet for each of the stacks; c. constructing (13; 15) a linearized set of reflectivity equations that relate seismic reflectivity to changes in elastic parameters of said subsurface region; d. constructing (14; 16) a linearized set of rock physics equations that relate changes in the elastic parameters to the rock and fluid-type parameters; e. combining the linearized reflectivity equations with the linearized rock physics equations; f. forming matrix equations by convolving the specified wavelets with the combined set of equations and equating to the measured data; and g. inverting the matrix equations to solve by numerical methods for said rock and fluid-type parameters, said solution being for all offsets simultaneously at the single trace location.
A vascular flow diverter comprising: a tubular mesh framework comprising a mesh cover and an opening, where: the tubular mesh framework is collapsible and configured to expand from a collapsed shape to a tubular shape when the vascular flow diverter is deployed; the opening is located within the mesh cover; and the tubular mesh framework is more porous than the mesh cover, characterized in that the mesh cover has a circular, rounded, or oblong shaped outer perimeter and is placed over a mid-section of the tubular mesh framework and wherein the mesh cover extends part-way around a circumference of the tubular mesh framework so as to be surrounded by the tubular mesh framework and conform to the shape of the tubular mesh framework, wherein the opening is located within the outer perimeter, the opening being configured to allow a guiding device to pass through the mid-section of the tubular mesh framework and through the circular, rounded, or oblong shaped mesh cover placed over the mid-section of the tubular mesh framework. the tubular mesh framework is collapsible and configured to expand from a collapsed shape to a tubular shape when the vascular flow diverter is deployed; the opening is located within the mesh cover; and the tubular mesh framework is more porous than the mesh cover, characterized in that the mesh cover has a circular, rounded, or oblong shaped outer perimeter and is placed over a mid-section of the tubular mesh framework and wherein the mesh cover extends part-way around a circumference of the tubular mesh framework so as to be surrounded by the tubular mesh framework and conform to the shape of the tubular mesh framework, wherein the opening is located within the outer perimeter, the opening being configured to allow a guiding device to pass through the mid-section of the tubular mesh framework and through the circular, rounded, or oblong shaped mesh cover placed over the mid-section of the tubular mesh framework.
A method of manufacturing a panel transducer scale package, the method comprising the steps of: securing one or more acoustic components at predetermined locations on a first carrier substrate, a first surface of the one or more acoustic components positioned adjacent to the first carrier substrate; securing one or more application-specific integrated circuits, ASIC, components at predetermined locations on the first carrier substrate, a first surface of the one or more ASIC components positioned adjacent to the first carrier substrate; applying a photoresist resin over the one or more acoustic components and the one or more ASIC components such that the one or more acoustic components and the one or more ASIC components are embedded within the photoresist resin and a second surface of the one or more acoustic components is left exposed from the photoresist resin; removing the first carrier substrate to expose the first surface of the one or more acoustic components and the first surface of the one or more ASIC components; forming a buildup layer over the one or more acoustic components, the one or more ASIC components, and the photoresist resin, the buildup layer including electrical pathways between the first surface of each of the one or more acoustic components and the first surface of at least one of the one or more ASIC components; and removing the photoresist resin. securing one or more acoustic components at predetermined locations on a first carrier substrate, a first surface of the one or more acoustic components positioned adjacent to the first carrier substrate; securing one or more application-specific integrated circuits, ASIC, components at predetermined locations on the first carrier substrate, a first surface of the one or more ASIC components positioned adjacent to the first carrier substrate; applying a photoresist resin over the one or more acoustic components and the one or more ASIC components such that the one or more acoustic components and the one or more ASIC components are embedded within the photoresist resin and a second surface of the one or more acoustic components is left exposed from the photoresist resin; removing the first carrier substrate to expose the first surface of the one or more acoustic components and the first surface of the one or more ASIC components; forming a buildup layer over the one or more acoustic components, the one or more ASIC components, and the photoresist resin, the buildup layer including electrical pathways between the first surface of each of the one or more acoustic components and the first surface of at least one of the one or more ASIC components; and removing the photoresist resin.
Coaxial probe for a time-domain reflectometry fill-level measuring instrument, the probe comprising: an inner conductor (101, 402); an outer conductor; a terminating resistor via which the inner conductor is electrically coupled to the outer conductor; wherein the terminating resistor is located at a lower end of the inner conductor; characterized in that, the terminating resistor is integrated into the inner conductor and in that the probe comprises a spring element, which is arranged between the terminating resistor and the inner conductor (101, 402) and electrically couples the terminating resistor with the inner conductor. an inner conductor (101, 402); an outer conductor; a terminating resistor via which the inner conductor is electrically coupled to the outer conductor;
Method for analysing molecular targets contained in a complex mixture comprising: a. contacting in solution the mixture of molecular targets to be analysed with a set of primary probes of different types, each type of primary probe forming the set being able to bind by a specific bond a single type of molecular target of the complex mixture, under conditions enabling the specific binding between said molecular targets and said primary probes, to form a primary probe-target complex in solution, each primary probe consisting of a polynucleotide or comprising a portion forming a polynucleotide of which the nucleotide sequence is known and is, for each type of primary probe, different to all the nucleotide sequences of the polynucleotides of the other types of primary probe, b. optionally removing the primary probes not specifically bound with a molecular target, c. separating the molecular targets and the primary probes bound by a specific bond in said primary probe-target complex, so as to retrieve the primary probe representing a imprint of the molecular targets to be analysed, d. analysing the primary probes eluted in step c, including the identification and quantification of the polynucleotide of each primary probe eluted, in particular by detecting an effect due to the nucleotide sequence, the size or the mass of this polynucleotide. a. contacting in solution the mixture of molecular targets to be analysed with a set of primary probes of different types, each type of primary probe forming the set being able to bind by a specific bond a single type of molecular target of the complex mixture, under conditions enabling the specific binding between said molecular targets and said primary probes, to form a primary probe-target complex in solution, each primary probe consisting of a polynucleotide or comprising a portion forming a polynucleotide of which the nucleotide sequence is known and is, for each type of primary probe, different to all the nucleotide sequences of the polynucleotides of the other types of primary probe, b. optionally removing the primary probes not specifically bound with a molecular target, c. separating the molecular targets and the primary probes bound by a specific bond in said primary probe-target complex, so as to retrieve the primary probe representing a imprint of the molecular targets to be analysed, d. analysing the primary probes eluted in step c, including the identification and quantification of the polynucleotide of each primary probe eluted, in particular by detecting an effect due to the nucleotide sequence, the size or the mass of this polynucleotide.