mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method of decision-making comprising: a data input step to input data comprising input/output pairs from a plurality of first data sources into a first data bank, analysing said input data by means of a first adaptive artificial neural network, the neural network including a plurality of layers having at least an input layer, one or more hidden layers and an output layer, each layer comprising a plurality of interconnected neurons, the number of hidden neurons utilised being adaptive, the first ANN determining the most important input data and training from the most important input data second ANNs, with one second ANN for each given decision output, deriving from the second ANNs a plurality of Type-1 fuzzy sets for each first data source by categorizing accumulated input/output pairs from the second ANNs into the Type-1 fuzzy sets such that the Type-1 fuzzy sets quantify the raw crisp values of the accumulated input/output pairs representing the data source, combining the Type-1 fuzzy sets to create Footprint of Uncertainty for type-2 fuzzy sets, modelling the group decision of the combined first data sources, inputting data from a second data source, and assigning an aggregate ranking score thereto, scaling the assigned aggregate ranking score and then averaging the assigned aggregate ranking score over the first data sources and mapping the averaged scaled ranking score onto a Type-2 fuzzy set representing the group decision, and producing a decision therefrom in which the highest average scaled sum membership of said fuzzy set is selected. a data input step to input data comprising input/output pairs from a plurality of first data sources into a first data bank, analysing said input data by means of a first adaptive artificial neural network, the neural network including a plurality of layers having at least an input layer, one or more hidden layers and an output layer, each layer comprising a plurality of interconnected neurons, the number of hidden neurons utilised being adaptive, the first ANN determining the most important input data and training from the most important input data second ANNs, with one second ANN for each given decision output, deriving from the second ANNs a plurality of Type-1 fuzzy sets for each first data source by categorizing accumulated input/output pairs from the second ANNs into the Type-1 fuzzy sets such that the Type-1 fuzzy sets quantify the raw crisp values of the accumulated input/output pairs representing the data source, combining the Type-1 fuzzy sets to create Footprint of Uncertainty for type-2 fuzzy sets, modelling the group decision of the combined first data sources, inputting data from a second data source, and assigning an aggregate ranking score thereto, scaling the assigned aggregate ranking score and then averaging the assigned aggregate ranking score over the first data sources and mapping the averaged scaled ranking score onto a Type-2 fuzzy set representing the group decision, and producing a decision therefrom in which the highest average scaled sum membership of said fuzzy set is selected.
A method for producing a tampon comprising a pressed, absorbent material wound up to form a winding and a covering material at least partially covering the outer boundary surface of the winding, wherein a functional material that affects the feel, the look and/or the function of the tampon is provided in the winding and/or the covering material and/or between the winding and the covering material and/or on a surface of the covering material facing away from the winding, wherein a covering material is applied to a material web made of absorbent material, the absorbent material that is thus provided is wound up relative to a winding axis to form a winding such that the covering material at least partially covers the outer boundary surface of the winding, the winding is pressed in the axial and/or radial direction, wherein the absorbent material and/or the covering material is provided with the functional material before and/or during the winding process, characterized in that the functional material has a softening temperature as determined according to ASTME28 in glycerine in the range of between 80° C and 200° C and a processing temperature in the range of between 80° C and 280° C and is brought to the desired processing temperature and applied with an adhesive application head.
A product security device comprising: a first jaw; a second jaw,; a locking mechanism operably coupled to the first jaw and the second jaw, wherein, in a locked state, the locking mechanism is configured to permit movement of the first jaw towards the second jaw but prevent movement of the first jaw away from the second jaw; and a product engagement pin affixed to the first jaw, the product engagement pin being configured to be received at least partially into the second jaw to fasten the product security device to a product when the first jaw and the second jaw are in the closed position, characterized in that the first jaw and the second jaw are operably coupled together to slide between an open position and a closed position. a first jaw; a second jaw,; a locking mechanism operably coupled to the first jaw and the second jaw, wherein, in a locked state, the locking mechanism is configured to permit movement of the first jaw towards the second jaw but prevent movement of the first jaw away from the second jaw; and a product engagement pin affixed to the first jaw, the product engagement pin being configured to be received at least partially into the second jaw to fasten the product security device to a product when the first jaw and the second jaw are in the closed position, characterized in that the first jaw and the second jaw are operably coupled together to slide between an open position and a closed position.
A double-stranded ribonucleic acid comprising: a combination of a sense strand and an antisense strand, wherein the combination of the sense strand and the antisense strand are selected from the group consisting of combinations: SEQ ID NO: 159 and SEQ ID NO: 160; SEQ ID NO: 141 and SEQ ID NO: 142; SEQ ID NO: 143 and SEQ ID NO: 144; SEQ ID NO: 145 and SEQ ID NO: 146; SEQ ID NO: 147 and SEQ ID NO: 148; and SEQ ID NO: 153 and SEQ ID NO: 154. a combination of a sense strand and an antisense strand, wherein the combination of the sense strand and the antisense strand are selected from the group consisting of combinations: SEQ ID NO: 159 and SEQ ID NO: 160; SEQ ID NO: 141 and SEQ ID NO: 142; SEQ ID NO: 143 and SEQ ID NO: 144; SEQ ID NO: 145 and SEQ ID NO: 146; SEQ ID NO: 147 and SEQ ID NO: 148; and SEQ ID NO: 153 and SEQ ID NO: 154.
A meter reading system configured for reading the meter display of a meter through a meter register window, the meter display comprising an alphanumeric string, the meter reading system comprising a control processor unit, a sensor unit containing a plurality of cameras including a first camera and at least a second camera, an angled solid prism, an optically transparent adhesive, and an optically clear resin, wherein the first camera is configured to be focussed on a first area of the alphanumeric string of the meter display and the said second camera is configured to be focussed on a second area of the same alphanumeric string of the meter display, wherein the cameras are arranged so that the area consisting of said first and second areas can be captured, wherein the sensor unit is configured to be connected to the meter and fixed to the meter window via said angled solid prism through which the cameras are arranged to view the meter display, whereby said cameras (10, 10') are configured to be arranged in a position offset from an area directly in front of the meter display, so that most of the meter display remains uncovered and visible from the front of the meter, enabling simultaneous manual reading by a meter reading operator, wherein the prism is attached to the meter register window of the metering unit via said optically transparent adhesive, and wherein an area between the cameras and the prism is filled with said optically clear resin,and wherein the control processor unit is configured to subsequently stitch or juxtapose images each captured by the respective said cameras to create the data of a complete image of the alphanumeric string.
A light source comprising: one or more light emitters having respective light emitting surfaces disposed about a longitudinal axis and oriented to output light radially outwardly away from the longitudinal axis, wherein the one or more light emitters are surface-emitting light emitters; and a collimating reflector (104a, 104b) disposed radially outward of the one or. more light emitters, all or part of the collimating reflector (104a, 104b) configured to at least partially collimate light output by the one or more light emitters and to substantially preserve etendue of the light output by the one or more light emitters, the collimating reflector (104a, 104b) including an input aperture having a width in a direction of the longitudinal axis, the one or more light emitting surfaces extending across the entire width of the input aperture in the direction of the longitudinal axis, wherein the collimating reflector (104a, 104b) includes an upper reflective surface above the input aperture and a lower reflective surface below the input aperture, wherein an upper end of the input aperture is located at a focal point of a parabolic curvature of the lower reflective surface, and wherein a lower end of the input aperture is located at a focal point of a parabolic curvature of the upper reflective surface. one or more light emitters having respective light emitting surfaces disposed about a longitudinal axis and oriented to output light radially outwardly away from the longitudinal axis, wherein the one or more light emitters are surface-emitting light emitters; and a collimating reflector (104a, 104b) disposed radially outward of the one or. more light emitters, all or part of the collimating reflector (104a, 104b) configured to at least partially collimate light output by the one or more light emitters and to substantially preserve etendue of the light output by the one or more light emitters, the collimating reflector (104a, 104b) including an input aperture having a width in a direction of the longitudinal axis, the one or more light emitting surfaces extending across the entire width of the input aperture in the direction of the longitudinal axis, wherein the collimating reflector (104a, 104b) includes an upper reflective surface above the input aperture and a lower reflective surface below the input aperture, wherein an upper end of the input aperture is located at a focal point of a parabolic curvature of the lower reflective surface, and wherein a lower end of the input aperture is located at a focal point of a parabolic curvature of the upper reflective surface.
A composition for use in a method of treating diabetic symmetrical polyneuropathy by topical or transdermal administration, the composition comprising: an effective amount of pirenzepine, a salt thereof, or hydrate thereof; one or more penetration enhancing agents; and a pharmacologically acceptable carrier or excipient or combinations thereof. an effective amount of pirenzepine, a salt thereof, or hydrate thereof; one or more penetration enhancing agents; and a pharmacologically acceptable carrier or excipient or combinations thereof.
A method for improving the organoleptic properties of fermented soymilk, said method comprising the following steps: i) mixing the soymilk with at least one product of vegetable origin containing starch and hydrolysis products thereof; which is obtained by means of thermal, chemical and/or enzymatic treatment of tapioca flour; ii) fermenting the mixture of step i) with at least one bacterium selected from the species Streptococcus thermophilus, wherein the at least one bacterium of S. thermophilus comprises at least one bacterium selected from the group of strains consisting of: S. thermophilus as deposited with Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH on February 26, 2004 and identified by deposit number DSM 16591, S. thermophilus as deposited with Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH on February 26, 2004 and identified by deposit number DSM 16593, and S. thermophilus as deposited with Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH on December 21, 2005 and identified by deposit number DSM 17843. i) mixing the soymilk with at least one product of vegetable origin containing starch and hydrolysis products thereof; which is obtained by means of thermal, chemical and/or enzymatic treatment of tapioca flour; ii) fermenting the mixture of step i) with at least one bacterium selected from the species Streptococcus thermophilus, S. thermophilus as deposited with Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH on February 26, 2004 and identified by deposit number DSM 16591, S. thermophilus as deposited with Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH on February 26, 2004 and identified by deposit number DSM 16593, and S. thermophilus as deposited with Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH on December 21, 2005 and identified by deposit number DSM 17843.
An electrically isolated coupler comprising: a driven body made of first metallic material and having a driven end configured to interface with a fastening component, the driven body comprising a first interface portion; a drive body made of a second metallic material and having a drive end configured to interface with a driving tool, the drive body comprising a second interface portion; and an insulating member disposed between the drive body and the driven body to electrically isolate the drive body and the driven body from each other, wherein the first interface portion includes at least one axially extending portion that extends toward the drive body, and the second interface portion includes at least one axially extending portion that extends toward the driven body, wherein the insulating member is disposed between the respective at least one axially extending portions of the first and second interface portions, characterised in that the second interface portion extends at least partially around a drive mating structure of the drive body. a driven body made of first metallic material and having a driven end configured to interface with a fastening component, the driven body comprising a first interface portion; a drive body made of a second metallic material and having a drive end configured to interface with a driving tool, the drive body comprising a second interface portion; and an insulating member disposed between the drive body and the driven body to electrically isolate the drive body and the driven body from each other, wherein the first interface portion includes at least one axially extending portion that extends toward the drive body, and the second interface portion includes at least one axially extending portion that extends toward the driven body, wherein the insulating member is disposed between the respective at least one axially extending portions of the first and second interface portions, characterised in that the second interface portion extends at least partially around a drive mating structure of the drive body.
A method of detecting an undesirable event in an additive manufacturing system, the method comprising: building a workpiece with the additive manufacturing system, wherein the additive manufacturing system comprises: a housing; a build chamber disposed within the housing; a recoater disposed within the build chamber; a build platform configured to receive the workpiece; a shaft mounted to the build platform; an actuating mechanism engaged with the shaft such that the actuating mechanism is configured to move the shaft relative to the actuating mechanism; and an acoustic sensor within the housing and in operable communication with the additive manufacturing system; sensing, by the acoustic sensor, a sound level; identifying, from the sensed sound level, an occurrence of a sonic pulse signal emitted by the actuating mechanism; and determining, by a controller, whether the sonic pulse signal emitted by the actuating mechanism, is outside of a threshold range, wherein a sonic pulse signal that is outside the threshold range is indicative of at least one of the following: contact between the recoater and the workpiece, a drop of the shaft relative to the actuating mechanism, and an un-binding of two bound components of the actuating mechanism. building a workpiece with the additive manufacturing system, wherein the additive manufacturing system comprises: a housing; a build chamber disposed within the housing; a recoater disposed within the build chamber; a build platform configured to receive the workpiece; a shaft mounted to the build platform; an actuating mechanism engaged with the shaft such that the actuating mechanism is configured to move the shaft relative to the actuating mechanism; and an acoustic sensor within the housing and in operable communication with the additive manufacturing system; a housing; a build chamber disposed within the housing; a recoater disposed within the build chamber; a build platform configured to receive the workpiece; a shaft mounted to the build platform; an actuating mechanism engaged with the shaft such that the actuating mechanism is configured to move the shaft relative to the actuating mechanism; and an acoustic sensor within the housing and in operable communication with the additive manufacturing system; sensing, by the acoustic sensor, a sound level; identifying, from the sensed sound level, an occurrence of a sonic pulse signal emitted by the actuating mechanism; and determining, by a controller, whether the sonic pulse signal emitted by the actuating mechanism, is outside of a threshold range, wherein a sonic pulse signal that is outside the threshold range is indicative of at least one of the following: contact between the recoater and the workpiece, a drop of the shaft relative to the actuating mechanism, and an un-binding of two bound components of the actuating mechanism.
Brake lining assembly for a floating-calliper disc brake, comprising a brake carrier and a brake calliper movable relative thereto, wherein the brake carrier accommodates at least an application-side and a reaction-side brake lining (2, 3) in respective brake lining channels, wherein the brake linings (2, 3) are applied to a brake disc, and also having at least one lining spring assembly (10, 11, 20) which causes bracing between the brake carrier and the reaction-side brake lining, wherein at least the lining spring assembly (10, 11, 20) of the reaction-side brake lining is guided from a peripheral side of the brake lining, where it is retained between the brake carrier and the brake lining, to the top side of the brake lining on the open side of the brake lining channel, facing away from support surfaces, and is retained on this side on a securing element fastened to or formed on the brake calliper, and wherein the lining spring assembly has at least one lining spring (10, 11, 20), characterised in that the at least one lining spring (10, 11, 20) immerses with at least one free end into a recess in the bottom corner area of the brake lining and is preferably fastened there with frictional engagement between the recess of the brake lining and the brake lining channel wall.
A computer-implemented method for routing a client request to a server module, the computer-implemented method comprising computer-implemented operations for: receiving a client request from a client computer at a router module; and in response to receiving the client request, the router module: querying a load balancer for a target network address of a server module (110A, 110B) to fulfill the client request; comparing the target network address to one or more network addresses in a list of network addresses to determine if the router module and the server module (110A, 110B) to fulfill the client request are executing on the same physical computer; in response to determining that the router module and the server module are executing on the same physical computer, forwarding the client request from the router module to the server module via a transport that utilizes binary encoding and that does not utilize a network stack; and in response to determining that the router module and the server module to fulfill the client request are not executing on the same physical computer, forwarding the client request from the router module to the server module utilizing a standard network transport. receiving a client request from a client computer at a router module; and in response to receiving the client request, the router module: querying a load balancer for a target network address of a server module (110A, 110B) to fulfill the client request; comparing the target network address to one or more network addresses in a list of network addresses to determine if the router module and the server module (110A, 110B) to fulfill the client request are executing on the same physical computer; in response to determining that the router module and the server module are executing on the same physical computer, forwarding the client request from the router module to the server module via a transport that utilizes binary encoding and that does not utilize a network stack; and in response to determining that the router module and the server module to fulfill the client request are not executing on the same physical computer, forwarding the client request from the router module to the server module utilizing a standard network transport. querying a load balancer for a target network address of a server module (110A, 110B) to fulfill the client request; comparing the target network address to one or more network addresses in a list of network addresses to determine if the router module and the server module (110A, 110B) to fulfill the client request are executing on the same physical computer; in response to determining that the router module and the server module are executing on the same physical computer, forwarding the client request from the router module to the server module via a transport that utilizes binary encoding and that does not utilize a network stack; and in response to determining that the router module and the server module to fulfill the client request are not executing on the same physical computer, forwarding the client request from the router module to the server module utilizing a standard network transport.