mhurhangee/ep-ind-claims huggingface dataset:
A method for generating accuracy profiles for users, for dynamic search query resolution, the method comprising: referencing search engine session data of a user, wherein search engine session data includes a plurality of search queries each having an entered-attribute and a resolved-attribute; determining a variation between the entered-attribute and the resolved-attribute, for each of the plurality of search queries, based on analyzing the entered-attribute and the resolved-attribute, wherein the entered-attribute is an input of the user and the input of the user is resolved as the resolved-attribute for executing the search query, wherein determining the variation between the entered-attribute and the resolved-attribute, for each of the plurality of search queries, further comprises identifying a plurality of variations based on a change in spelling between the entered-attribute and the resolved-attribute of each of the plurality of search queries; generating an input-precision score for an accuracy profile of the user using the variation between the entered-attribute and the resolved-attribute of each of the plurality of search queries, wherein the accuracy profile comprises the input-precision score; resolving a search query entered by the user to a resolved search query using the accuracy profile, wherein resolving the search query comprises determining and correcting spelling errors, and wherein the input-precision score is used to determine whether spelling errors are corrected; and executing the search query with the resolved search query. referencing search engine session data of a user, wherein search engine session data includes a plurality of search queries each having an entered-attribute and a resolved-attribute; determining a variation between the entered-attribute and the resolved-attribute, for each of the plurality of search queries, based on analyzing the entered-attribute and the resolved-attribute, wherein the entered-attribute is an input of the user and the input of the user is resolved as the resolved-attribute for executing the search query, wherein determining the variation between the entered-attribute and the resolved-attribute, for each of the plurality of search queries, further comprises identifying a plurality of variations based on a change in spelling between the entered-attribute and the resolved-attribute of each of the plurality of search queries; generating an input-precision score for an accuracy profile of the user using the variation between the entered-attribute and the resolved-attribute of each of the plurality of search queries, wherein the accuracy profile comprises the input-precision score; resolving a search query entered by the user to a resolved search query using the accuracy profile, wherein resolving the search query comprises determining and correcting spelling errors, and wherein the input-precision score is used to determine whether spelling errors are corrected; and executing the search query with the resolved search query.
A method for implementing policy and charging control, comprising: receiving (S101, S305), by a gateway, an uplink packet forwarded by a mobile terminal and sent by a device located in a local area network which the mobile terminal acts as an agent for, the device performing data interaction with the gateway through a wireless access network, wherein after obtaining a traffic flow template TFT packet filter corresponding to an Internet Protocol IP address of the device in the uplink packet through matching, the mobile terminal forwards the uplink packet through a bearer corresponding to the TFT packet filter; and obtaining (S102, S306), by the gateway, an uplink policy and charging control PCC packet filter corresponding to the IP address of the device in the uplink packet through matching, and performing policy and charging control PCC on the uplink packet according to an uplink PCC rule found by matching the uplink packet with the uplink PCC packet filter, further comprising before receiving (S101, S305) the uplink packet: converting, by the gateway, the uplink PCC packet filter in the uplink PCC rule into a TFT packet filter; and sending, by the gateway, a quality of service QoS parameter in each uplink PCC rule and the TFT packet filter to the mobile terminal, so that the mobile terminal establishes correspondence between a bearer corresponding to the QoS parameter and the TFT packet filter. receiving (S101, S305), by a gateway, an uplink packet forwarded by a mobile terminal and sent by a device located in a local area network which the mobile terminal acts as an agent for, the device performing data interaction with the gateway through a wireless access network, wherein after obtaining a traffic flow template TFT packet filter corresponding to an Internet Protocol IP address of the device in the uplink packet through matching, the mobile terminal forwards the uplink packet through a bearer corresponding to the TFT packet filter; and obtaining (S102, S306), by the gateway, an uplink policy and charging control PCC packet filter corresponding to the IP address of the device in the uplink packet through matching, and performing policy and charging control PCC on the uplink packet according to an uplink PCC rule found by matching the uplink packet with the uplink PCC packet filter, converting, by the gateway, the uplink PCC packet filter in the uplink PCC rule into a TFT packet filter; and sending, by the gateway, a quality of service QoS parameter in each uplink PCC rule and the TFT packet filter to the mobile terminal, so that the mobile terminal establishes correspondence between a bearer corresponding to the QoS parameter and the TFT packet filter.
A fishing rod comprising: a small-diameter hollow rod body extending in a central axis direction; a large-diameter hollow rod body extending in the central axis direction; and a spigot ferrule inserted in the small-diameter rod body from its rear end and into the large-diameter rod body from its front end to connect the small-diameter rod body and the large-diameter rod body, characterised in that, on an inner peripheral surface of the small-diameter rod body, a first inclined surface (2b1) that extends from a rear end of the small-diameter rod body at an angle of 1.0° to 3.0° with respect to the central axis direction is formed. a small-diameter hollow rod body extending in a central axis direction; a large-diameter hollow rod body extending in the central axis direction; and a spigot ferrule inserted in the small-diameter rod body from its rear end and into the large-diameter rod body from its front end to connect the small-diameter rod body and the large-diameter rod body, characterised in that, on an inner peripheral surface of the small-diameter rod body, a first inclined surface (2b1) that extends from a rear end of the small-diameter rod body at an angle of 1.0° to 3.0° with respect to the central axis direction is formed.
Nanodevice for the controlled release of substances which comprises a support coated with oligosaccharides, wherein said oligosaccharides comprise at least 3 units of monosaccharides, and wherein all of the monosaccharides are galactose.
A monoclonal antibody or fragment thereof that specifically binds to human cannabinoid receptor-1 protein set forth in SEQ ID NO: 1, wherein the monoclonal antibody or fragment thereof (a) comprises SEQ ID NO: 4 and SEQ ID NO: 5; (b) has at least 99% identity to SEQ ID NO: 4 and SEQ ID NO: 5; (c) comprises SEQ ID NOs: 17-22; (d) has at least 98% identity to SEQ ID NOs: 17-22; (e) comprises SEQ ID NOs 7 and 8, SEQ ID NOs 7 and 10, SEQ ID NOs 7 and 12, SEQ ID NOs 6 and 16, or SEQ ID NOs 4 and 14, SEQ ID NOs. 36 and 37, or SEQ ID NOs. 36 and 38; or (f) has at least 99% identity to one of the monoclonal antibodies or fragments thereof of (e); wherein the monoclonal antibody or fragment thereof of any of (a) to (f) antagonizes G-protein signaling of the CB1 protein as measured in a GTP-Eu assay, an Aequorin assay or cAMP assay. (a) comprises SEQ ID NO: 4 and SEQ ID NO: 5; (b) has at least 99% identity to SEQ ID NO: 4 and SEQ ID NO: 5; (c) comprises SEQ ID NOs: 17-22; (d) has at least 98% identity to SEQ ID NOs: 17-22; (e) comprises SEQ ID NOs 7 and 8, SEQ ID NOs 7 and 10, SEQ ID NOs 7 and 12, SEQ ID NOs 6 and 16, or SEQ ID NOs 4 and 14, SEQ ID NOs. 36 and 37, or SEQ ID NOs. 36 and 38; or (f) has at least 99% identity to one of the monoclonal antibodies or fragments thereof of (e);
A method for producing a metal-polymeric pipe (19, 36) by extrusion molding, comprising feeding of a polymer melt from an extrusion head into a mold cavity formed by a cooled mandrel and an external mold barrel, with the simultaneous feeding of a welded metal reinforcing framework (2, 3, 33) made with the use of at least one roll electrode, wherein during welding of the reinforcing framework (2, 3, 33) the roll electrode is supplied by impulses synchronized with the time of mutual crossing of the longitudinal and transverse reinforcement elements as well as with the time of feeding a current pulse to the roll electrode, the said roll electrode being used as the means for forming a coil when making a framework, characterized in that said roll ensures constant pressing of the transverse reinforcement elements to the longitudinal reinforcement elements by a force applied by a hydraulic actuator; and during extrusion molding a heat-resistant non-metal bush is arranged before the mandrel, the internal surface and the external surface of the molded pipe (19, 36) are cooled for the purpose of producing a polymer matrix with a molecular structure on the basis of an amorphous phase.
A receiver device for receiving data blocks with a transport block length from a data network, said receiver device comprising a) calculating means for calculating for each of a plurality of candidate block lengths a respective theoretical maximum value for a path metric of a decoding operation, wherein the path metric designates a measure of similarity between a received code word or signal and one of allowed or candidate code words or signals defined by an underlying coding procedure, and wherein the theoretical maximum value of the path metric corresponds to the sum of elements of an input vector of said decoding operation when all negative samples get their signs changed but none of the positive samples; b) comparing means for comparing said calculated respective theoretical maximum value to a respective actual value of said path metric obtained for each of said plurality of candidate block lengths by said decoding operation; and c) determination means for selecting, based on the comparison result of said comparing means, from said plurality of candidate block lengths the candidate block length with the highest ratio between said respective actual value and said respective theoretical maximum value and for determining said transport block length of said data blocks based on said selected candidate block length. a) calculating means for calculating for each of a plurality of candidate block lengths a respective theoretical maximum value for a path metric of a decoding operation, wherein the path metric designates a measure of similarity between a received code word or signal and one of allowed or candidate code words or signals defined by an underlying coding procedure, and wherein the theoretical maximum value of the path metric corresponds to the sum of elements of an input vector of said decoding operation when all negative samples get their signs changed but none of the positive samples; b) comparing means for comparing said calculated respective theoretical maximum value to a respective actual value of said path metric obtained for each of said plurality of candidate block lengths by said decoding operation; and c) determination means for selecting, based on the comparison result of said comparing means, from said plurality of candidate block lengths the candidate block length with the highest ratio between said respective actual value and said respective theoretical maximum value and for determining said transport block length of said data blocks based on said selected candidate block length.
A device for indicating force, comprising: a first portion coupled to a shaft of an insertable medical device and extending along a first portion longitudinal axis between a proximal end and a distal end, the first portion including a protrusion extending radially outwardly of the first portion longitudinal axis; a second portion, at least a portion of the first portion being received within a lumen of the second portion, wherein the second portion is axially moveable along the first portion longitudinal axis relative to the first portion, wherein the second portion includes a longitudinally extending channel; and a spring located radially between the first portion and the second portion, wherein the first portion includes a first grip portion, a base portion, and a transition portion between the first grip portion and the base portion. a first portion coupled to a shaft of an insertable medical device and extending along a first portion longitudinal axis between a proximal end and a distal end, the first portion including a protrusion extending radially outwardly of the first portion longitudinal axis; a second portion, at least a portion of the first portion being received within a lumen of the second portion, wherein the second portion is axially moveable along the first portion longitudinal axis relative to the first portion, wherein the second portion includes a longitudinally extending channel; and a spring located radially between the first portion and the second portion, wherein the first portion includes a first grip portion, a base portion, and a transition portion between the first grip portion and the base portion.
A sampling device for withdrawing a plurality of samples from a fluid container, the sampling device comprising: - a support member for mounting into a port of a fluid container, the support member having a distal end surface facing the fluid when mounted into the port and an opposing proximal end surface, wherein the support member comprises a plurality of through passages extending between the distal end surface and the proximal end surface, the sampling device being characterised in that each through passage comprises a first channel connecting to a second channel within the support member, the first channel extending from the proximal end surface and the second channel extending from the distal end surface, wherein the second channel is arranged eccentrically with respect to the first channel, the sampling device further being characterised in that it comprises: - a plurality of elongated inserts, each insert comprising a cylindrical distal part rotatably arranged in one of the first channels of the support member and having a distal end surface, and a proximal part protruding beyond the proximal end surface of the support member, wherein each insert comprises a through conduit forming an eccentric aperture within the distal end surface of the cylindrical distal part, the through conduit being alignable and misalignable with the second channel of the respective through passage of the support member by rotating the insert relative to the support member; and - an actuation member for sequentially rotating each insert such that by unidirectional movement of the actuation member each of the inserts is sequentially rotated from a first position of misalignment, through a second position of alignment, to a third position of misalignment of the through conduit and the second channel. - a support member for mounting into a port of a fluid container, the support member having a distal end surface facing the fluid when mounted into the port and an opposing proximal end surface, wherein the support member comprises a plurality of through passages extending between the distal end surface and the proximal end surface, - a plurality of elongated inserts, each insert comprising a cylindrical distal part rotatably arranged in one of the first channels of the support member and having a distal end surface, and a proximal part protruding beyond the proximal end surface of the support member, wherein each insert comprises a through conduit forming an eccentric aperture within the distal end surface of the cylindrical distal part, the through conduit being alignable and misalignable with the second channel of the respective through passage of the support member by rotating the insert relative to the support member; and - an actuation member for sequentially rotating each insert such that by unidirectional movement of the actuation member each of the inserts is sequentially rotated from a first position of misalignment, through a second position of alignment, to a third position of misalignment of the through conduit and the second channel.
A coated article comprising a coating supported by a glass substrate, the coating comprising moving away from the glass substrate: a first dielectric layer comprising silicon nitride; a first contact layer; an IR reflecting layer comprising silver, wherein the coating has only one IR reflecting layer comprising silver; a second contact layer, the first and second contact layers (6, 8) each directly contacting the IR reflecting layer; a second dielectric layer comprising silicon nitride; and wherein at least one of the first and second dielectric layers comprising silicon nitride is split by an absorber layer (4, 10) comprising NbZr, wherein the absorber layer is provided so that the coated article is neutral-colored by way of an a* g color value of from about -5.0 to 1.0 and a b* g color value of from about -5.0 to 1.0, and is able to achieve such coloration when having only one IR reflecting layer comprising silver. a first dielectric layer comprising silicon nitride; a first contact layer; an IR reflecting layer comprising silver, wherein the coating has only one IR reflecting layer comprising silver; a second contact layer, the first and second contact layers (6, 8) each directly contacting the IR reflecting layer; a second dielectric layer comprising silicon nitride; and wherein at least one of the first and second dielectric layers comprising silicon nitride is split by an absorber layer (4, 10) comprising NbZr, wherein the absorber layer is provided so that the coated article is neutral-colored by way of an a* g color value of from about -5.0 to 1.0 and a b* g color value of from about -5.0 to 1.0, and is able to achieve such coloration when having only one IR reflecting layer comprising silver.
Carrying system having - a carrying device for a portable gas exchange device, having: • at least one first carrying strap which is designed to go around a patient's torso and thereby allow the carrying device to be supported on the patient, and • at least one fastening means (26, 27) that is designed to fasten a portable gas exchange device, and - a portable gas exchange device, wherein the gas exchange device has a fastening means that is designed to be complementary to a fastening means of the carrying device, such that the gas exchange device can be fastened, preferably reversibly, to the carrying device, characterized in that the gas exchange device has a housing that has a rear wall that faces the first carrying strap and is curved inward toward the first carrying strap. - a carrying device for a portable gas exchange device, having: • at least one first carrying strap which is designed to go around a patient's torso and thereby allow the carrying device to be supported on the patient, and • at least one fastening means (26, 27) that is designed to fasten a portable gas exchange device, and • at least one first carrying strap which is designed to go around a patient's torso and thereby allow the carrying device to be supported on the patient, and • at least one fastening means (26, 27) that is designed to fasten a portable gas exchange device, - a portable gas exchange device, wherein the gas exchange device has a fastening means that is designed to be complementary to a fastening means of the carrying device, such that the gas exchange device can be fastened, preferably reversibly, to the carrying device,
Centrifugal clutch, in particular for a drive train of a motorcycle or some other motor vehicle, having - an inner rotary element, the outer circumference of which has a plurality of ramps, - at least one flyweight device surrounding the inner rotary element, said flyweight device having a plurality of circumferentially distributed flyweights and the inner circumference of said flyweight device having a plurality of counterpart ramps for forming a form-fit and/or friction fit with the ramps of the inner rotary element, and - an outer rotary element surrounding the at least one flyweight device, wherein, in order to create a friction fit with the outer rotary element, the flyweights of the flyweight device are pressable outwards against an inner circumference of the outer rotary element counter to the action of a spring arrangement (38, 40) via a friction lining, characterized in that the flyweight device is formed from a substantially annular plate structure having an individual plate element or a stack of several plate elements, wherein the plate structure has several circumferentially distributed circumferential portions which form the flyweights. - an inner rotary element, the outer circumference of which has a plurality of ramps, - at least one flyweight device surrounding the inner rotary element, said flyweight device having a plurality of circumferentially distributed flyweights and the inner circumference of said flyweight device having a plurality of counterpart ramps for forming a form-fit and/or friction fit with the ramps of the inner rotary element, and - an outer rotary element surrounding the at least one flyweight device,
A method of predicting tonal noise produced by a wind turbine, the method comprising: acquiring a first set of vibration data, the first set of vibration data being from a plurality of vibration sensors positioned at locations about a wind turbine drivetrain when the wind turbine drivetrain is undergoing testing in a test rig; acquiring a second set of vibration data, the second set of vibration data being from a plurality of vibration sensors positioned at locations about the same or a similar wind turbine drivetrain when located in a wind turbine; acquiring noise data including tonal noise produced by the wind turbine; identifying a vibration sensor of interest using vibration data of the second set of vibration data and the noise data; determining, for the identified vibration sensor, a first relationship between vibration data of the first set of vibration data and vibration data of the second set of vibration data; and determining, for the identified vibration sensor, a second relationship between the first set of vibration data and tonal noise produced by a wind turbine based on the first relationship. acquiring a first set of vibration data, the first set of vibration data being from a plurality of vibration sensors positioned at locations about a wind turbine drivetrain when the wind turbine drivetrain is undergoing testing in a test rig; acquiring a second set of vibration data, the second set of vibration data being from a plurality of vibration sensors positioned at locations about the same or a similar wind turbine drivetrain when located in a wind turbine; acquiring noise data including tonal noise produced by the wind turbine; identifying a vibration sensor of interest using vibration data of the second set of vibration data and the noise data; determining, for the identified vibration sensor, a first relationship between vibration data of the first set of vibration data and vibration data of the second set of vibration data; and determining, for the identified vibration sensor, a second relationship between the first set of vibration data and tonal noise produced by a wind turbine based on the first relationship.