mhurhangee/ep-ind-claims huggingface dataset:
A method for responding to requests received through a file system interface, the method comprising the steps of: establishing, in a table that is used to emulate a hierarchical storage system in a database, an entry that denotes a directory and contains a link to a stored query; receiving through said file system interface a request for a listing of children (618, 622) of said directory; in response to said request, performing the steps of: a database server executing said stored query to which said entry that denotes said directory is linked, wherein execution of said query selects a set of database records comprising names of the children (618, 622) of said directory; determining said listing of the children (618, 622) of said directory from the selected set of database records; and presenting said listing of the children (618, 622) of said directory. establishing, in a table that is used to emulate a hierarchical storage system in a database, an entry that denotes a directory and contains a link to a stored query; receiving through said file system interface a request for a listing of children (618, 622) of said directory; in response to said request, performing the steps of: a database server executing said stored query to which said entry that denotes said directory is linked, wherein execution of said query selects a set of database records comprising names of the children (618, 622) of said directory; determining said listing of the children (618, 622) of said directory from the selected set of database records; and presenting said listing of the children (618, 622) of said directory. a database server executing said stored query to which said entry that denotes said directory is linked, wherein execution of said query selects a set of database records comprising names of the children (618, 622) of said directory; determining said listing of the children (618, 622) of said directory from the selected set of database records; and presenting said listing of the children (618, 622) of said directory.
An electrophysiology catheter, comprising: a balloon having a membrane, the balloon having a distal end and a proximal end defining a longitudinal axis; a first substrate disposed on the membrane, the first substrate including a first radiopaque marker of a first form disposed thereon; and a second substrate disposed on the membrane, the second substrate including a second radiopaque marker of a second form disposed thereon, the second form being different from the first form, wherein the first form includes a first polygon and the second form includes a second polygon, wherein the second polygon is asymmetric about a centerline that is parallel to the longitudinal axis of the balloon, wherein the second polygon includes an arrowhead, and wherein the second polygon points toward a third substrate, wherein the third substrate includes a third radiopaque marker of a third form disposed thereon, the third form being different from the first form and the second form, and wherein the third form includes a third polygon, wherein the third polygon is asymmetric about a centerline that is parallel to the longitudinal axis of the balloon, wherein the third polygon includes an arrowhead, and wherein the third polygon points toward an ultimate substrate. a balloon having a membrane, the balloon having a distal end and a proximal end defining a longitudinal axis; a first substrate disposed on the membrane, the first substrate including a first radiopaque marker of a first form disposed thereon; and a second substrate disposed on the membrane, the second substrate including a second radiopaque marker of a second form disposed thereon, the second form being different from the first form, wherein the first form includes a first polygon and the second form includes a second polygon, wherein the second polygon is asymmetric about a centerline that is parallel to the longitudinal axis of the balloon, wherein the second polygon includes an arrowhead, and wherein the second polygon points toward a third substrate, wherein the third substrate includes a third radiopaque marker of a third form disposed thereon, the third form being different from the first form and the second form, and wherein the third form includes a third polygon, wherein the third polygon is asymmetric about a centerline that is parallel to the longitudinal axis of the balloon, wherein the third polygon includes an arrowhead, and wherein the third polygon points toward an ultimate substrate.
A method, comprising: receiving, by a processing unit of a receiver, information from a transmitter associated with an audio data; storing, by the processing unit, the information associated with the audio data; determining (313,211) that a request for remote audio keep-alive has been received from the transmitter and that no audio or video data is received from the transmitter; and responsive to the determining, transmitting, by the processing unit, a silent data stream, comprising an audio keep-alive, to a display, such that the silent data stream is output from the display based on the stored information. receiving, by a processing unit of a receiver, information from a transmitter associated with an audio data; storing, by the processing unit, the information associated with the audio data; determining (313,211) that a request for remote audio keep-alive has been received from the transmitter and that no audio or video data is received from the transmitter; and responsive to the determining, transmitting, by the processing unit, a silent data stream, comprising an audio keep-alive, to a display, such that the silent data stream is output from the display based on the stored information.
A method of audio signal processing, said method comprising: spatially processing a first audio signal to generate a first plurality M of imaging signals; for each of the first plurality M of imaging signals, applying a corresponding one of a first plurality M of driving signals to a corresponding one of a first plurality M of loudspeakers of an array, wherein each driving signal is based on the corresponding imaging signal; harmonically extending a second audio signal in a first frequency range to produce an extended signal that includes harmonics each having a frequency in a second frequency range that is higher than the first frequency range, of the second audio signal in the first frequency range; spatially processing an enhanced signal that is based on the extended signal to generate a second plurality N of imaging signals; and for each of the second plurality N of imaging signals, applying a corresponding one of a second plurality N of driving signals to a corresponding one of a second plurality N of loudspeakers of the array, wherein each driving signal is based on the corresponding imaging signal; and sampling a subarray (R100b) of loudspeakers from a loudspeaker array wherein at least 2 adjacent loudspeakers of the sampled subarray (R100b) have a spacing which is larger than the spacing between adjacent speakers of a further subarray (R100a) of loudspeakers of the loudspeaker array and wherein the sampled subarray is used to reproduce frequency content in a signal associated with the first frequency range. spatially processing a first audio signal to generate a first plurality M of imaging signals; for each of the first plurality M of imaging signals, applying a corresponding one of a first plurality M of driving signals to a corresponding one of a first plurality M of loudspeakers of an array, wherein each driving signal is based on the corresponding imaging signal; harmonically extending a second audio signal in a first frequency range to produce an extended signal that includes harmonics each having a frequency in a second frequency range that is higher than the first frequency range, of the second audio signal in the first frequency range; spatially processing an enhanced signal that is based on the extended signal to generate a second plurality N of imaging signals; and for each of the second plurality N of imaging signals, applying a corresponding one of a second plurality N of driving signals to a corresponding one of a second plurality N of loudspeakers of the array, wherein each driving signal is based on the corresponding imaging signal; and sampling a subarray (R100b) of loudspeakers from a loudspeaker array wherein at least 2 adjacent loudspeakers of the sampled subarray (R100b) have a spacing which is larger than the spacing between adjacent speakers of a further subarray (R100a) of loudspeakers of the loudspeaker array and wherein the sampled subarray is used to reproduce frequency content in a signal associated with the first frequency range.
A method in a user equipment for performing channel estimation of one or more long term channel properties at the user equipment, wherein the user equipment is served by a radio network node; the method comprising: - assuming that a default Channel State Information Reference Signal, CSI-RS, resource is co-located with a Demodulation Reference signal, DMRS, port when co-location is not explicitly signalled from the radio network node,wherein 'not explicitly signalled' means that a received scheduling assignment does not include a quasi-co-location field; and - when assumed to be co-located, estimating one or more long term channel properties of the DMRS port and the default CSI-RS resource based on the assumption that the default CSI-RS resource is co-located with the DMRS port; characterised in that the default CSI-RS resource is configured by reading a predetermined entry in a configurable list of candidate co-location CSI-RS resources for a dynamic indication of colocation options in a Downlink Control Information, DCI, format. - assuming that a default Channel State Information Reference Signal, CSI-RS, resource is co-located with a Demodulation Reference signal, DMRS, port when co-location is not explicitly signalled from the radio network node,wherein 'not explicitly signalled' means that a received scheduling assignment does not include a quasi-co-location field; and - when assumed to be co-located, estimating one or more long term channel properties of the DMRS port and the default CSI-RS resource based on the assumption that the default CSI-RS resource is co-located with the DMRS port;
A shift fork of a vehicle gearbox undergoing bending, sliding contact, wear, and caulking stresses, comprising: - a shank (2; 12) designed to be traversed by the shaft on which the shift fork will be mounted, - two branches (4, 5; 14, 15) together substantially forming a semicircle, - a web (6; 16) connecting the barrel (2; 12) and the branches (4, 5; 14, 15), - two shoes (7, 8; 17, 18) each terminating one of the branches (4, 5; 14, 15) and designed to co-operate with a sliding gear of the gearbox, and - a crosshead extending from the shank and terminated by a sliding sleeve designed to engage a shift finger of the gearbox, characterized in that: - the crosshead is integral, and - the shift fork is made of a hypereutectic aluminum-silicon alloy the Si content of which is between 16 and 27 weight percent. - a shank (2; 12) designed to be traversed by the shaft on which the shift fork will be mounted, - two branches (4, 5; 14, 15) together substantially forming a semicircle, - a web (6; 16) connecting the barrel (2; 12) and the branches (4, 5; 14, 15), - two shoes (7, 8; 17, 18) each terminating one of the branches (4, 5; 14, 15) and designed to co-operate with a sliding gear of the gearbox, and - a crosshead extending from the shank and terminated by a sliding sleeve designed to engage a shift finger of the gearbox, - the crosshead is integral, and - the shift fork is made of a hypereutectic aluminum-silicon alloy the Si content of which is between 16 and 27 weight percent.
A computer-implemented method, comprising: receiving, by a user device from an access device, a first message comprising a terminal type indicator; in response to the terminal type indicator indicating a terminal type associated with offline authentication: transmitting, from the user device to the access device, a second message comprising a first identifier and an encrypted identifier; and in response to the terminal type indicator indicating a terminal type associated with online authentication: generating, by the user device, an obfuscated identifier based at least in part on a first portion of a second identifier and a second portion of the encrypted identifier; and transmitting, from the user device to the access device, a third message comprising the obfuscated identifier and the encrypted identifier. receiving, by a user device from an access device, a first message comprising a terminal type indicator; in response to the terminal type indicator indicating a terminal type associated with offline authentication: transmitting, from the user device to the access device, a second message comprising a first identifier and an encrypted identifier; and in response to the terminal type indicator indicating a terminal type associated with online authentication: generating, by the user device, an obfuscated identifier based at least in part on a first portion of a second identifier and a second portion of the encrypted identifier; and transmitting, from the user device to the access device, a third message comprising the obfuscated identifier and the encrypted identifier. generating, by the user device, an obfuscated identifier based at least in part on a first portion of a second identifier and a second portion of the encrypted identifier; and transmitting, from the user device to the access device, a third message comprising the obfuscated identifier and the encrypted identifier.
A method for fermentation of high sugar honey wort wherein Scm strain of Saccharomyces cerevisiae yeast deposited at the IAFB Collection of Industrial Microorganisms under number KKP 2052 p is introduced into the honey wort mash and the wort fermentation is carried out, preferably for 30 days, until a young mead is obtained.
Machine for the assembly of profiles which are formed of at least a first profile section and a second profile section which are connected by means of one or several thermally insulating sections (5, 6), whereby edges (38, 39, 45, 46, 86) of the thermally insulating sections (5, 6) are provided in grooves (17, 20, 31, 33, 82, 90) of the profile sections (3, 4), whereby the machine is provided with one or several press tools or roller tools which can intervene at the grooves (17, 20, 31, 33, 82, 90) of the profile sections (3, 4) in order to plastically deform one or several walls of the grooves (17, 20, 31, 33, 82, 90) by means of pressing or rolling, and in order to achieve a clamping of the thermally insulating sections (5, 6) in the grooves and thus a connection between the profile sections (3, 4), whereby the machine is provided with roughening means with which the grooves can be roughened, and whereby the press tools and the roughening means are provided on one or several trolleys which can move to and fro along profile sections (3, 4) to be assembled, and whereby during a forward movement of the trolley or trolleys, the grooves (17, 20, 31,33, 82, 90) are first roughened and the thermally insulating sections (5, 6) are provided in the grooves (17, 20, 31, 33, 82, 90), and during a return movement of the trolley or trolleys the grooves (17, 20, 31, 33, 82, 90) are plastically deformed by means of the press tools so as to connect the profile sections (3, 4) whereby the machine is provided with at least one pair of press tools (49-50, 51-52) provided on either side of a profile section (3, 4) to be assembled, whereby both press tools (49-50, 51-52) of such a pair of press tools are moreover arranged such that they can move in a lateral direction (HH') at right angles to the longitudinal direction of a profile to be formed during the pressure or rolling operation, whereby the machine is provided with press means, said press means adapted for exerting an adjustable pressure on the related press tools of at least one such pair of press tools (49-50, 51 -52) on either side of a profile section (3, 4) to be assembled in the aforesaid lateral direction (HH') and towards the profile sections (3, 4) to be assembled so as to be able to exert an adjustable force on the corresponding walls of the grooves (17, 20, 31, 33, 82, 90), characterized in that the press tools constantly position themselves in relation to the central axis of the profile to be formed under the influence of the local shape of the profile sections (3, 4) by use of a hydraulic system with switching means which contain one or several proportional valves such that a constant force is continuously exerted on each of the respective walls of the grooves (17, 20, 31, 33, 82, 90) of the profile sections (3, 4) during the processing of a profile, irrespective of small deviations in the shape of the profile sections (3, 4) due to differences within certain tolerance limits while they are being manufactured, and whereby the aforesaid lateral direction (HH') is horizontal.
A method of manufacturing a pharmaceutical preparation of extracellular vesicles (EVs), comprising the steps of: isolating EVs from multiple preparations of a body fluid or from the conditioned medium of a cell culture; preparing one or more samples from the isolated EVs at a predetermined concentration of EVs; testing the activity of each EVs sample in a potency test; selecting for further processing to a pharmaceutical preparation the samples which exceed a predetermined activity; and pooling two or more of the active EVs samples. isolating EVs from multiple preparations of a body fluid or from the conditioned medium of a cell culture; preparing one or more samples from the isolated EVs at a predetermined concentration of EVs; testing the activity of each EVs sample in a potency test; selecting for further processing to a pharmaceutical preparation the samples which exceed a predetermined activity; and pooling two or more of the active EVs samples.
A method, comprising: at an electronic device with one or more processors and memory: receiving a first speech input at the electronic device, the first speech input including a command associated with a feature of the electronic device; while generating an initial text-independent voiceprint based on the first speech input, determining an action corresponding to the command; storing the generated text-independent voice print; providing access to the feature of the device according to the command receiving a second speech input at the electronic device; and determining whether voice characteristics of the second speech input match voice characteristics of the stored text-independent voiceprint. receiving a first speech input at the electronic device, the first speech input including a command associated with a feature of the electronic device; while generating an initial text-independent voiceprint based on the first speech input, determining an action corresponding to the command; storing the generated text-independent voice print; providing access to the feature of the device according to the command receiving a second speech input at the electronic device; and determining whether voice characteristics of the second speech input match voice characteristics of the stored text-independent voiceprint.
At a first wireless transceiver device, a method comprising: transmitting a first fine timing measurement, FTM, message addressed to a second wireless transceiver device; and conditionally authenticating a received message as being transmitted by the second wireless transceiver device and acknowledging receipt of the first FTM message; and wherein the first FTM message is transmitted in response to receipt of an FTM request message from the second wireless transceiver device comprising a first token, wherein the first FTM message comprises a second token and the received message comprises a third token, and wherein conditionally authenticating the received message as being transmitted by the second wireless transceiver device and acknowledging receipt of the first FTM message further comprises comparing the third token to a value computed as a function of the first token and the second token. transmitting a first fine timing measurement, FTM, message addressed to a second wireless transceiver device; and conditionally authenticating a received message as being transmitted by the second wireless transceiver device and acknowledging receipt of the first FTM message; and
An aqueous composition for treating a substrate including patterns having line-space dimensions of 50 nm or below to prevent collapse of the patterns, the composition comprising: a solvent system comprising water and a water-miscible organic solvent; a surface modifier that is a reaction product between an alkylamine and an organic acid; and optional pH adjusting agent; wherein said organic acid is selected from the group consisting of aliphatic/aromatic carboxylic acids, amino carboxylic acids, sulfonic acids and aminosulfonic acids; wherein the alkylamine is selected from a primary amine or a secondary amine; and the pH is from 1.0 to 5.0. a solvent system comprising water and a water-miscible organic solvent; a surface modifier that is a reaction product between an alkylamine and an organic acid; and optional pH adjusting agent; wherein said organic acid is selected from the group consisting of aliphatic/aromatic carboxylic acids, amino carboxylic acids, sulfonic acids and aminosulfonic acids; wherein the alkylamine is selected from a primary amine or a secondary amine; and the pH is from 1.0 to 5.0.
Method of manufacturing an optical lens, the method comprising: • a lens member providing step during which a lens member comprising a first surface and a first reference system of the first surface is provided, the first reference system being identified by first markings on the first surface, • a surface data providing step during which surface data corresponding to a second surface and the position of the second surface relative to the first surface of the optical lens to be manufactured are provided, • a lens member blocking step during which the lens member is blocked in a machining position, • a machining step during which the second surface of the optical lens is machined according to the surface data, • a second marking providing step during which second markings identifying a second reference system of the second surface are provided on the second surface of the optical lens, • a reference system determining step during which the first and second reference systems are determined by measuring the positions of the first and second markings, and • a comparison step during which the positions of the first and second reference systems are compared so as to estimate the positioning error between the first and second surfaces. • a lens member providing step during which a lens member comprising a first surface and a first reference system of the first surface is provided, the first reference system being identified by first markings on the first surface, • a surface data providing step during which surface data corresponding to a second surface and the position of the second surface relative to the first surface of the optical lens to be manufactured are provided, • a lens member blocking step during which the lens member is blocked in a machining position, • a machining step during which the second surface of the optical lens is machined according to the surface data, • a second marking providing step during which second markings identifying a second reference system of the second surface are provided on the second surface of the optical lens, • a reference system determining step during which the first and second reference systems are determined by measuring the positions of the first and second markings, and • a comparison step during which the positions of the first and second reference systems are compared so as to estimate the positioning error between the first and second surfaces.