mhurhangee/ep-ind-claims huggingface dataset:
An implant fitting arrangement for fitting a cochlear implant system to a cochlear implant patient, the arrangement comprising: a PAMR measurement module configured to: i. apply an electrical stimulus signal via an electrode contact of a cochlear implant to the cochlear implant patient, and ii. determine a post-auricular muscle reflex (PAMR) response of the patient to the electrical stimulus signal; and a patient fitting module configured to set an operating characteristic of the cochlear implant system based on the PAMR response. a PAMR measurement module configured to: i. apply an electrical stimulus signal via an electrode contact of a cochlear implant to the cochlear implant patient, and ii. determine a post-auricular muscle reflex (PAMR) response of the patient to the electrical stimulus signal; and i. apply an electrical stimulus signal via an electrode contact of a cochlear implant to the cochlear implant patient, and ii. determine a post-auricular muscle reflex (PAMR) response of the patient to the electrical stimulus signal; and a patient fitting module configured to set an operating characteristic of the cochlear implant system based on the PAMR response.
An electric actuator, comprising: a motor part configured to drive upon receiving supply of power; a motion conversion mechanism part configured to convert a rotary motion of the motor part into a linear motion to output the linear motion; a housing configured to house the motor part and the motion conversion mechanism part; and a terminal part, wherein the motion conversion mechanism part comprises: a screw shaft arranged coaxially with a rotation center of a rotor of the motor part; and a nut member rotatably fitted to an outer periphery of the screw shaft, wherein the screw shaft performs a linear motion in an axial direction along with a rotation of the nut member upon receiving a rotary motion of the rotor, and wherein the housing comprises a plurality of members (20, 29, 50) coupled to one another in the axial direction, wherein a terminal main body forms the terminal part, comprises a tubular portion sandwiched by the members (20,29) forming the housing from both sides in the axial direction; and is configured to hold a power supply circuit configured to supply the power to the motor part, characterized in that the said terminal main body is also configured to hold a rotation angle detection sensor configured to detect a rotation angle of the rotor; and a stroke detection sensor configured to detect a movement amount of the screw shaft directly in the axial direction. a motor part configured to drive upon receiving supply of power; a motion conversion mechanism part configured to convert a rotary motion of the motor part into a linear motion to output the linear motion; a housing configured to house the motor part and the motion conversion mechanism part; and a terminal part, wherein the motion conversion mechanism part comprises: a screw shaft arranged coaxially with a rotation center of a rotor of the motor part; and a nut member rotatably fitted to an outer periphery of the screw shaft, a screw shaft arranged coaxially with a rotation center of a rotor of the motor part; and a nut member rotatably fitted to an outer periphery of the screw shaft, wherein the screw shaft performs a linear motion in an axial direction along with a rotation of the nut member upon receiving a rotary motion of the rotor, and wherein the housing comprises a plurality of members (20, 29, 50) coupled to one another in the axial direction, wherein a terminal main body forms the terminal part, comprises a tubular portion sandwiched by the members (20,29) forming the housing from both sides in the axial direction; and is configured to hold a power supply circuit configured to supply the power to the motor part, characterized in that the said terminal main body is also configured to hold a rotation angle detection sensor configured to detect a rotation angle of the rotor; and a stroke detection sensor configured to detect a movement amount of the screw shaft directly in the axial direction.
A method for producing a flexographic printing plate from a flexographic printing original plate provided with a photosensitive resin layer comprising a photosensitive resin composition containing at least a hydrophobic polymer comprising a water-dispersible latex, a photopolymerizable compound and a photopolymerization initiator, wherein the method comprises a main exposure step, a development step and a post-exposure step, characterized in that a treatment solution containing a first amino-modified silicone having an amine equivalent of 1000 g/mol or less and a second amino-modified silicone having an amine equivalent of 3000 g/mol or more in a mass ratio of from 2.5:1 to 1:6 is contacted with the whole surface of the flexographic printing plate.
A passenger train set comprising - two end wagons (102, 107) and a plurality of middle wagons, - said plurality of middle wagons being arranged between said two end wagons (102, 107) and comprising a first wagon, a second wagon and a third wagon, - said third wagon being arranged adjacent to and in between said first wagon and said second wagon, - at least one of said first, second and third wagon (103, 104, 105) being a transport module including passenger transport seating, - in a longitudinal direction of said train set, said first wagon having a first length, said second wagon having a second length and said third wagon having a third length, characterized in that - said first length and/or said second length is 105% to 165% of said third length, in particular 120% to 165% of said third length, preferably 130% to 160% of said third length, and in that said second length is 75% to 100% of said first length, in particular 80% to 95% of said first length, preferably 85% to 90% of said first length. - two end wagons (102, 107) and a plurality of middle wagons, - said plurality of middle wagons being arranged between said two end wagons (102, 107) and comprising a first wagon, a second wagon and a third wagon, - said third wagon being arranged adjacent to and in between said first wagon and said second wagon, - at least one of said first, second and third wagon (103, 104, 105) being a transport module including passenger transport seating, - in a longitudinal direction of said train set, said first wagon having a first length, said second wagon having a second length and said third wagon having a third length, - said first length and/or said second length is 105% to 165% of said third length, in particular 120% to 165% of said third length, preferably 130% to 160% of said third length, and in that
Tool receptacle having a receptacle body, wherein the receptacle body has an axis of rotation, has an interface at the rear for receiving of the tool receptacle in a working spindle of a power tool, and has a receptacle opening at the front for force-fitting retention of a rotatable tool, wherein the receptacle opening contains slots extending radially outwards from its inner wall and running in a longitudinal direction of the receptacle body, wherein the receptacle body contains an insert which is fastened in an insert receptacle, wherein the insert is formed with a connection for a connection part of an inner coolant supply or lubricant supply or compressed-air line such that, during machining, coolant or lubricant or compressed air can be conducted through the tool receptacle to the tool via the slots, wherein the radius of the insert receptacle of the receptacle body is greater than the maximum radius r of the slots, characterized in that the connection is in the form of a connection thread that is formed as an inner thread.
A hermetic compressor comprising at least one refrigerant fluid discharge tube, a cylinder cap and a coupling system for connecting said at least one tube to said cylinder cap, said coupling system comprising: - at least one connecting device comprising a tubular body provided, at one of its ends, with a perimetral flap co-operative with said discharge tube; - in said cylinder cap, at least one channel co-operative with the at least one connecting device; and - at least one layer of sealing material applied on the two interfaces: connecting device co-operative with the cylinder cap, and connecting device co-operative with the discharge tube; CHARACTERIZED by the fact that the entire surface of the discharge tube co-operating with the connecting device is rolled; the end of the discharge tube co-operating with the connecting device has conical form; the co-operation between the discharge tube and the connecting device is made by interference; the channel has a substantially conical inner surface; the co-operation between the connecting device and the channel of the cylinder cap is made by interference; and wherein the material of the connecting device is selected from one of the following materials: steel, aluminum alloy, or metal alloy containing steel or aluminum. - at least one connecting device comprising a tubular body provided, at one of its ends, with a perimetral flap co-operative with said discharge tube; - in said cylinder cap, at least one channel co-operative with the at least one connecting device; and - at least one layer of sealing material applied on the two interfaces: connecting device co-operative with the cylinder cap, and connecting device co-operative with the discharge tube;
System for the automatic adjustment of a predefinable gas input quantity in a working system having system components (14, 16) which are movable relative to each other, in which system components the pressure of the gas input quantity is variable due to compression or expansion during operation and/or under changing operating and ambient temperatures, wherein an accumulator system with a predefinable storage volume can be connected to the working system via a control device in such a manner that, in the case of compression within the working system, a portion of the gas input quantity can be delivered to the accumulator system as a storage quantity and, in the case of expansion within the working system, can be retrieved from the accumulator system and fed back to the working system as a gas input quantity, in particular to compensate for changes of temperature in the working system and/or its surroundings, characterised in that the control device arranged in a gas-conducting connection between the working system and the accumulator system has two valve units (60, 62) in parallel arrangement to each other, in that the expansion of the working gas within the working system can be influenced with the one valve unit and the compression of the same with the other valve unit, in that the one valve unit is a pressure-reducing valve and in that the other valve unit is a pressure-limiting valve.
A computer-implemented method for resolving closed loops in automatic fault tree analysis of a multi-component system, the method comprising: modeling the multi-component system using a fault tree, the fault tree comprising elements associated with components of the multi-component system and interconnections between the elements associated with functional dependencies between the components; back-tracing failure propagation paths from an output element of the fault tree via the interconnections towards one or more input elements of the fault tree; checking, for all failure propagation paths, if the respective failure propagation path contains a closed loop by identifying a downstream element of the respective failure propagation path having a dependency of its output value on an output value of an upstream element of the failure propagation path; setting the input value corresponding to a loop interconnection (ψ i) of each such downstream element to Boolean TRUE; replacing any Boolean AND-gate having, independently of the specific values of the input elements, Boolean TRUE as output value with a Boolean OR-gate between the respective downstream element and the respective upstream element; cutting off any Boolean TRUE input to any Boolean AND-gate remaining between the respective downstream element and the respective upstream element; and setting the input value of each respective downstream element corresponding to the loop interconnection (ψ i) to Boolean FALSE. modeling the multi-component system using a fault tree, the fault tree comprising elements associated with components of the multi-component system and interconnections between the elements associated with functional dependencies between the components; back-tracing failure propagation paths from an output element of the fault tree via the interconnections towards one or more input elements of the fault tree; checking, for all failure propagation paths, if the respective failure propagation path contains a closed loop by identifying a downstream element of the respective failure propagation path having a dependency of its output value on an output value of an upstream element of the failure propagation path; setting the input value corresponding to a loop interconnection (ψ i) of each such downstream element to Boolean TRUE; replacing any Boolean AND-gate having, independently of the specific values of the input elements, Boolean TRUE as output value with a Boolean OR-gate between the respective downstream element and the respective upstream element; cutting off any Boolean TRUE input to any Boolean AND-gate remaining between the respective downstream element and the respective upstream element; and setting the input value of each respective downstream element corresponding to the loop interconnection (ψ i) to Boolean FALSE.
A safety cap assembly for a pressure cooker, comprising: a pressure release tube (20, 120) formed therein with an axially extending pressure release channel (20a, 120a) and formed with an outwardly extending flange portion (22, 122) at a lower end thereof, a cap securing nut (30, 160) which is in substantially a truncated cone shape with an outer diameter thereof gradually increasing from a top end to a bottom end thereof and is configured to be attached to a lower portion of said pressure release tube (20, 120), and a safety cap unit (40, 140) comprised of a mesh casing (42, 142) and a supporting bridge (44, 144B) and configured to be attached to the lower portion of said pressure release tube (20, 120), characterized in a central portion of said supporting bridge (44, 144B) being substantially outside of said mesh casing (42, 142) and held by said cap securing nut (30, 160) and said outwardly extending flange portion (22, 122). a pressure release tube (20, 120) formed therein with an axially extending pressure release channel (20a, 120a) and formed with an outwardly extending flange portion (22, 122) at a lower end thereof, a cap securing nut (30, 160) which is in substantially a truncated cone shape with an outer diameter thereof gradually increasing from a top end to a bottom end thereof and is configured to be attached to a lower portion of said pressure release tube (20, 120), and a safety cap unit (40, 140) comprised of a mesh casing (42, 142) and a supporting bridge (44, 144B) and configured to be attached to the lower portion of said pressure release tube (20, 120),
Equipment for determining a quantity to be measured from a communication system, which equipment includes a processor system (104, 105), which is arranged to calculate values of time difference for first measurement messages, which have been transmitted from a first area of said communication system to a second area of said communication system, the value of the time difference relating to each first measurement message being a difference between an instant of reception measured in said second area and an instant of transmission measured in said first area for the measurement message in question, characterized in that said processor system is also arranged: - to classify said values of the time difference into ranges of values having predetermined lower and upper limits, - to calculate for each range of values an occurrence frequency indicator (333, 334, 335), which is proportional to the number of values of said time difference that belong to said range of values, - to fit a curve to the occurrence frequency indicators of said ranges of values, - to determine on the basis of said curve an estimate of the minimum value of said time difference, and - to determine said quantity to be measured on the basis of the estimate of the minimum value of said time difference and information related to a second measurement message, which said second measurement message has been sent from said second area to said first area, and which said information is based on an instant of transmission measured in said second area and an instant of reception measured in said first area for said second measurement message. - to classify said values of the time difference into ranges of values having predetermined lower and upper limits, - to calculate for each range of values an occurrence frequency indicator (333, 334, 335), which is proportional to the number of values of said time difference that belong to said range of values, - to fit a curve to the occurrence frequency indicators of said ranges of values, - to determine on the basis of said curve an estimate of the minimum value of said time difference, and - to determine said quantity to be measured on the basis of the estimate of the minimum value of said time difference and information related to a second measurement message, which said second measurement message has been sent from said second area to said first area, and which said information is based on an instant of transmission measured in said second area and an instant of reception measured in said first area for said second measurement message.
A multi-compartment water-soluble capsule thermoformed from two sheets of water-soluble film, the capsule comprising a least two compartments with a different part of a detergent composition in each compartment, the two sheets of film being sealed together to form seal areas around each compartment, all the seal areas lying substantially in a first plane; - the capsule having at least one larger volume outer compartment and at least one smaller volume inner compartment generally enclosed in the first plane by the outer compartment(s), the outer compartment(s) being separated from the inner compartment(s) by a continuous partition seal area which is substantially rectangular and lies in the first plane, - the outer compartment(s) having a generally rectangular outer perimeter with rounded corners and a substantially uniform cross-section taken along a plane perpendicular to the first plane and perpendicular to the inner seal separating the inner and outer compartments. - the capsule having at least one larger volume outer compartment and at least one smaller volume inner compartment generally enclosed in the first plane by the outer compartment(s), the outer compartment(s) being separated from the inner compartment(s) by a continuous partition seal area which is substantially rectangular and lies in the first plane, - the outer compartment(s) having a generally rectangular outer perimeter with rounded corners and a substantially uniform cross-section taken along a plane perpendicular to the first plane and perpendicular to the inner seal separating the inner and outer compartments.
A cyclonic dust collection chamber for use with a vacuum source wherein the chamber comprises: a base opposite an apex and a plurality of sidewalls extending therebetween, the apex and sidewalls having interior surfaces, wherein the interior surfaces are substantially smooth; an outflow passage; an inflow passage extending from an inflow aperture contained in the sidewalls proximate the apex and distal from the base, inflow nozzle is in communication with the inflow passage; the inflow nozzle further having a curved body with a top surface, wherein the curved body terminates in an aperture covered by a directional valve configured to open at an angle selected to discharge air into the chamber in a direction substantially tangential to the curvature of the sidewalls; a filter positioned over the outflow passage whereby air exiting the chamber via the outflow passage must pass through the filter; and wherein the vacuum source is in operative fluid engagement with the outflow passage whereby operation of the vacuum source will draw air into the chamber via the inflow passage and inflow nozzle, whereby air will be discharged through the directional valve at the selected angle, whereby the air will travel in a cyclonic path around the sidewalls of the chamber and across the top surface of the nozzle, and wherein the recessed cavity is further configured to keep the inflow nozzle substantially exterior to the cyclonic path of the airflow in the chamber; characterized in that the sidewalls of the chamber contain a recess aperture; the chamber further comprising a recessed cavity depending from the sidewalls at the recess aperture; wherein the inflow nozzle is positioned in the cavity. a base opposite an apex and a plurality of sidewalls extending therebetween, the apex and sidewalls having interior surfaces, wherein the interior surfaces are substantially smooth; an outflow passage; an inflow passage extending from an inflow aperture contained in the sidewalls proximate the apex and distal from the base, inflow nozzle is in communication with the inflow passage; the inflow nozzle further having a curved body with a top surface, wherein the curved body terminates in an aperture covered by a directional valve configured to open at an angle selected to discharge air into the chamber in a direction substantially tangential to the curvature of the sidewalls; a filter positioned over the outflow passage whereby air exiting the chamber via the outflow passage must pass through the filter; and wherein the vacuum source is in operative fluid engagement with the outflow passage whereby operation of the vacuum source will draw air into the chamber via the inflow passage and inflow nozzle, whereby air will be discharged through the directional valve at the selected angle, whereby the air will travel in a cyclonic path around the sidewalls of the chamber and across the top surface of the nozzle, and wherein the recessed cavity is further configured to keep the inflow nozzle substantially exterior to the cyclonic path of the airflow in the chamber;
Packaging device for packaging compressed bales on a baling press by means of a bale fixing means and a multipart bale wrapper, which has an upper part,, a lower part and optionally a jacket-like side part, wherein the controllable packaging device has a fixing apparatus for attaching the bale fixing means, a feed apparatus for the upper part and the lower part, and optionally a wrapping apparatus for attaching the side part to the compressed bale, wherein the fixing apparatus and optionally the wrapping apparatus are arranged on a transport device that is movable along the compressed bale in an infeed direction, characterized in that the feed apparatus is likewise arranged on the transport device and feeds the upper part and the lower part, with a feed movement directed transversely to the infeed direction, into the baling press, in particular up to the press rams thereof, from the outside.