mhurhangee/patent-ind-claim-en huggingface dataset:
A computing system for providing access to hybrid computing resources comprising a quantum computer and a classical computer, wherein the quantum computer and the classical are operatively coupled to a digital computer over a network, and wherein the digital computer comprises at least one computer processor and computer memory, the computing system comprising: a gateway configured to receive a request from the digital computer over the network, wherein the request comprises a computational task; and an arbiter configured to (i) receive the request from the gateway, (ii) decompose the computational task into one or more quantum computational tasks and one or more classical computational tasks, and (iii) distribute the one or more quantum computational tasks to the quantum computer and the one or more classical computational tasks to the classical computer; wherein the arbiter is configured to further receive partial solutions from the quantum computer, from the classical computer, or both and to further (i) integrate the partial solutions into a solution to the computational task, (ii) evaluate a completeness of the solution, and (iii) repeat decomposing and distributing a remaining portion of the computational task until the completeness of the solution is achieved. a gateway configured to receive a request from the digital computer over the network, wherein the request comprises a computational task; and an arbiter configured to (i) receive the request from the gateway, (ii) decompose the computational task into one or more quantum computational tasks and one or more classical computational tasks, and (iii) distribute the one or more quantum computational tasks to the quantum computer and the one or more classical computational tasks to the classical computer; wherein the arbiter is configured to further receive partial solutions from the quantum computer, from the classical computer, or both and to further (i) integrate the partial solutions into a solution to the computational task, (ii) evaluate a completeness of the solution, and (iii) repeat decomposing and distributing a remaining portion of the computational task until the completeness of the solution is achieved.
Computer-implemented method for providing an adaptive dialogue system, including the steps of: automatically capturing (S1) at least one dialogue segment from a dialogue participant communicating with the dialogue system; automatically comparing (S2) the captured dialogue segment with dialogue segments of a stored dialogue segment model; automatically assigning (S3a) at least one corresponding dialogue segment to the captured dialogue segment according to the dialogue segment model if the captured dialogue segment is contained in the dialogue segment model or automatically adding (S3b) the captured dialogue segment to a dialogue segment group if the captured dialogue segment is not contained in the dialogue segment model; wherein the dialogue segments of the dialogue segment group are categorized, and wherein the categorized dialogue segments are weighted according to the frequency of their occurrence within the respective category, whereby sorting within the category is implemented; generating (S4) a dialogue segment depending on the dialogue segments of the dialogue segment group, wherein dialogue segments with the highest priority according to the sorting are processed first; storing (S5) the generated dialogue segment in the dialogue segment model. automatically capturing (S1) at least one dialogue segment from a dialogue participant communicating with the dialogue system; automatically comparing (S2) the captured dialogue segment with dialogue segments of a stored dialogue segment model; automatically assigning (S3a) at least one corresponding dialogue segment to the captured dialogue segment according to the dialogue segment model if the captured dialogue segment is contained in the dialogue segment model or automatically adding (S3b) the captured dialogue segment to a dialogue segment group if the captured dialogue segment is not contained in the dialogue segment model; wherein the dialogue segments of the dialogue segment group are categorized, and wherein the categorized dialogue segments are weighted according to the frequency of their occurrence within the respective category, whereby sorting within the category is implemented; generating (S4) a dialogue segment depending on the dialogue segments of the dialogue segment group, wherein dialogue segments with the highest priority according to the sorting are processed first; storing (S5) the generated dialogue segment in the dialogue segment model.
A modular humeral implant for an inverted shoulder prosthesis, comprising: - a humeral stem having a metaphyseal portion ; - a humeral spacer mounted on the metaphyseal portion of the humeral stem and having an upper face , a lower face facing the metaphyseal portion and an outer peripheral face extending between the lower face and the upper face , said lower face having a peripheral portion projecting laterally medially, anteriorly and/or posteriorly from the metaphyseal portion ; and - a humeral insert fastened on the upper face of the humeral spacer and having a hemispherical cap shaped to receive a glenosphere of a glenoid implant; wherein the peripheral portion of the lower face of the humeral spacer is at least partially covered with a porous or rough metal surface coating promoting an osseointegration said humeral implant being characterized in that , on the humeral spacer , the porous or rough metal surface coating is provided only on the lower face , the outer peripheral face and the upper face being, in turn, smooth and not covered with a porous or rough metal surface coating. - a humeral stem having a metaphyseal portion ; - a humeral spacer mounted on the metaphyseal portion of the humeral stem and having an upper face , a lower face facing the metaphyseal portion and an outer peripheral face extending between the lower face and the upper face , said lower face having a peripheral portion projecting laterally medially, anteriorly and/or posteriorly from the metaphyseal portion ; and - a humeral insert fastened on the upper face of the humeral spacer and having a hemispherical cap shaped to receive a glenosphere of a glenoid implant; wherein the peripheral portion of the lower face of the humeral spacer is at least partially covered with a porous or rough metal surface coating promoting an osseointegration said humeral implant being characterized in that , on the humeral spacer , the porous or rough metal surface coating is provided only on the lower face , the outer peripheral face and the upper face being, in turn, smooth and not covered with a porous or rough metal surface coating.
Device for measuring a physiological parameter of a human limb, comprising: - a body comprising an opening for receiving the limb therein, - a moving means coupled to the body and movable relative to the body , - a receiving element for receiving a physiological sensor configured for interacting with the limb received in the opening, wherein the body comprises a first section and a second section arranged as an extension of the first section in a longitudinal direction of the body , wherein the second section is movable relative to the first section for defining the opening , wherein the moving means is coupled to the second section so as to adjust the size of the opening by moving the moving means wherein the moving means is detachable, preferably entirely detachable, from the body ; wherein the moving means is configured as a sliding means coupled to the second section at a joint position of the second section , wherein the sliding means is configured to stay still with respect to the joint position while being slid and wherein the second section is made of an elastic material. - a body comprising an opening for receiving the limb therein, - a moving means coupled to the body and movable relative to the body , - a receiving element for receiving a physiological sensor configured for interacting with the limb received in the opening, wherein the body comprises a first section and a second section arranged as an extension of the first section in a longitudinal direction of the body , wherein the second section is movable relative to the first section for defining the opening , wherein the moving means is coupled to the second section so as to adjust the size of the opening by moving the moving means wherein the moving means is detachable, preferably entirely detachable, from the body ; wherein the moving means is configured as a sliding means coupled to the second section at a joint position of the second section , wherein the sliding means is configured to stay still with respect to the joint position while being slid and wherein the second section is made of an elastic material. wherein the body comprises a first section and a second section arranged as an extension of the first section in a longitudinal direction of the body , wherein the second section is movable relative to the first section for defining the opening , wherein the moving means is coupled to the second section so as to adjust the size of the opening by moving the moving means wherein the moving means is detachable, preferably entirely detachable, from the body ; wherein the moving means is configured as a sliding means coupled to the second section at a joint position of the second section , wherein the sliding means is configured to stay still with respect to the joint position while being slid and wherein the second section is made of an elastic material.
A microelectromechanical gyroscope structure comprising a substantially planar seismic mass ; and a primary spring structure suspending the seismic mass to a body element with a suspension structure , the primary spring structure allowing a primary, drive mode oscillation motion where at least part of the seismic mass rotary oscillates in a first direction about a primary axis that is aligned with a plane of the seismic mass and a secondary, sense mode oscillation where at least part of the seismic mass moves in a second direction about a second axis perpendicular to the primary axis, wherein the primary spring structure has two ends attached to the seismic mass on opposite sides of the suspension structure and said primary spring structure is configured for torsional motion about the primary axis that is common with the primary oscillation motion, characterized in that a quadrature error of the seismic mass is mechanically compensated with at least one compensation groove on the face of the seismic mass, which face is away from the body element, wherein the at least one compensation groove is positioned at a predefined distance from either end of the primary spring structure.
A medical electrical lead comprising: an insulative lead body extending from a distal region to a proximal region; a conductor disposed within the insulative lead body and extending from the proximal region to the distal region; an electrode disposed on the insulative lead body and in electrical contact with the conductor; and a non-conductive fibrous matrix disposed at least partially over the electrode, the fibrous matrix comprising a polyisobutylene urethane, a polyisobutylene urea or a polyisobutylene urethane/urea copolymer comprising 10% to 60% by weight of a hard segment and the balance by weight of a soft segment, and wherein the fibrous matrix comprises a plurality of randomly aligned fibers having an average fiber diameter ranging from 10 nanometers to 400 nanometers. an insulative lead body extending from a distal region to a proximal region; a conductor disposed within the insulative lead body and extending from the proximal region to the distal region; an electrode disposed on the insulative lead body and in electrical contact with the conductor; and a non-conductive fibrous matrix disposed at least partially over the electrode, the fibrous matrix comprising a polyisobutylene urethane, a polyisobutylene urea or a polyisobutylene urethane/urea copolymer comprising 10% to 60% by weight of a hard segment and the balance by weight of a soft segment, and wherein the fibrous matrix comprises a plurality of randomly aligned fibers having an average fiber diameter ranging from 10 nanometers to 400 nanometers.
A device for treating water for household use which, being of the type including coupling means so as to be temporarily coupled to the mouth of a faucet to allow the continuous supply of treated water, characterized in that it is formed by means of a cylindrical-shaped receptacle , equipped with a lower hole , and open in the upper portion, defining an opening to which an upper closing element is coupled, where the receptacle supports on the inside thereof, specifically in the lower part, a paddle blind on which hollow, cylindrical-shaped filtering means are supported, where said filtering means accumulates a pre-filtration bed therein, whereas the inner wall of the receptacle is provided with a plurality of ribs that extend longitudinally so as to define channels through which the treated water flows, with the particularity that sealing means for the coupling to the faucet are defined on the upper closing element that are made up of an elastomer acting like a diaphragm having a planar and flexible shape with a hole in the central part thereof, furthermore being provided with a washer for the fixing of the elastomer, which is fixed by welding or bonding to the upper closing element , the upper closing element being provided with grooves for the inflow of water to be treated into the device.
Belt feeder for a safety belt device of a motor vehicle, comprising - a feeder arm having a guide part provided thereon for a belt strap of the safety belt device, - a drive device which drives the feeder arm into an extension movement from a parking position into a presentation position, and - a housing on which the feeder arm is guided, - the housing being formed by a hollow profile having an elongate first cavity in which the feeder arm is arranged, and - the first cavity , in the direction of the extension movement of the feeder arm, having a shape which defines the course of the extension movement, characterized in that - the feeder arm has teeth , and - the drive device has a fixed first worm which is driven into a rotational movement, engages into the teeth of the feeder arm and, during a rotational movement, drives the feeder arm into the extension movement by means of engaging into the teeth , and the drive device has a flexible shaft which can be driven into a rotational movement and to which the first worm is connected for conjoint rotation. - a feeder arm having a guide part provided thereon for a belt strap of the safety belt device, - a drive device which drives the feeder arm into an extension movement from a parking position into a presentation position, and - a housing on which the feeder arm is guided, - the housing being formed by a hollow profile having an elongate first cavity in which the feeder arm is arranged, and - the first cavity , in the direction of the extension movement of the feeder arm, having a shape which defines the course of the extension movement, characterized in that - the feeder arm has teeth , and - the drive device has a fixed first worm which is driven into a rotational movement, engages into the teeth of the feeder arm and, during a rotational movement, drives the feeder arm into the extension movement by means of engaging into the teeth , and
Method for determining at least one motion parameter of an electronic pen on a substrate, such as the velocity of the movement of the electronic pen, comprising: a measurement of a vibration signal , which is generated by the interaction between the tip of the electronic pen and the substrate, and a determination of the motion parameter of the electronic pen from the measured vibration signal of the electronic pen, wherein an envelope curve of the vibration signal is calculated, and wherein the envelope curve calculation comprises at least one of the following steps: a calculation of the average power of the vibration signal over a predetermined time window range around a current measurement time point, a calculation of the amplitude of the vibration signal from the average power of the vibration signal. a measurement of a vibration signal , which is generated by the interaction between the tip of the electronic pen and the substrate, and a determination of the motion parameter of the electronic pen from the measured vibration signal of the electronic pen, wherein an envelope curve of the vibration signal is calculated, and wherein the envelope curve calculation comprises at least one of the following steps: a calculation of the average power of the vibration signal over a predetermined time window range around a current measurement time point, a calculation of the amplitude of the vibration signal from the average power of the vibration signal. a calculation of the average power of the vibration signal over a predetermined time window range around a current measurement time point, a calculation of the amplitude of the vibration signal from the average power of the vibration signal.
A marine antifouling coating composition comprising: (i) an acrylic binder comprising at least one polymer comprising (meth)acrylate and/or silyl (meth)acrylate monomers; (ii) one or more rosins or derivatives thereof; (iii) one or more marine antifouling agents; and (iv) one or more monocarboxylic acids or a salt thereof selected from acyclic, saturated C12-C24 monocarboxylic acids or a salt thereof or acyclic, branched C12-C24 monocarboxylic acids or a salt thereof, wherein the monocarboxylic acid is in liquid form at 23 °C and ambient pressure (1 atm) and wherein the degree of branching of component (iv) is greater than 70 wt% and wherein the ratio of component (ii):(iv) on a dry weight basis is in the range of 90:10 to 40:60. (i) an acrylic binder comprising at least one polymer comprising (meth)acrylate and/or silyl (meth)acrylate monomers; (ii) one or more rosins or derivatives thereof; (iii) one or more marine antifouling agents; and (iv) one or more monocarboxylic acids or a salt thereof selected from acyclic, saturated C12-C24 monocarboxylic acids or a salt thereof or acyclic, branched C12-C24 monocarboxylic acids or a salt thereof, wherein the monocarboxylic acid is in liquid form at 23 °C and ambient pressure (1 atm) and wherein the degree of branching of component (iv) is greater than 70 wt%
A method comprising: receiving, by a data storage server storing encrypted data, from a client device , a user authentication request for decrypting the encrypted data; transmitting, by the data storage server , to the client device , a validation token associated with the user authentication request, wherein the validation token indicates that the user successfully authenticated; receiving, by the data storage server , from a first key server that stores a first key, a first confirmation request associated with the validation token , wherein the first key is required for decrypting a first portion of the encrypted data and, with a second key, is required for decrypting a second portion of the encrypted data; transmitting, by the data storage server , to the first key server, a first confirmation indicating that the client device is authenticated with the data storage server ; receiving, by the data storage server , from a second key server that stores a second key, a second confirmation request associated with the validation token , wherein the second key, with the first key, is required for decrypting the second portion of the encrypted data; and transmitting, by the data storage server , to the second key server, a second confirmation indicating that the client device is authenticated with the data storage server . receiving, by a data storage server storing encrypted data, from a client device , a user authentication request for decrypting the encrypted data; transmitting, by the data storage server , to the client device , a validation token associated with the user authentication request, wherein the validation token indicates that the user successfully authenticated; receiving, by the data storage server , from a first key server that stores a first key, a first confirmation request associated with the validation token , wherein the first key is required for decrypting a first portion of the encrypted data and, with a second key, is required for decrypting a second portion of the encrypted data; transmitting, by the data storage server , to the first key server, a first confirmation indicating that the client device is authenticated with the data storage server ; receiving, by the data storage server , from a second key server that stores a second key, a second confirmation request associated with the validation token , wherein the second key, with the first key, is required for decrypting the second portion of the encrypted data; and transmitting, by the data storage server , to the second key server, a second confirmation indicating that the client device is authenticated with the data storage server .
A method for fusing a solder material deposit by means of laser energy, in which laser radiation emitted from a first laser source is applied to the solder material deposit in a first application phase by means of a first laser device and laser radiation emitted from a second laser source is applied to the solder material deposit in a second application phase by means of a second laser device , said first laser source having a lower laser power than the second laser source, a switch being made from the first application phase to the second application phase by means of a switching device and said switch being triggered by a temperature sensor, by means of which the temperature of the solder material deposit is measured at least during the first application phase.
A robot lawnmower comprising: a robot body ; a drive system supporting the robot body and configured to maneuver the robot lawnmower over a lawn ; a localizing system configured to determine perimeter positions (21a-f) of the robot lawnmower with respect to an origin; a teach monitor in communication with the localizing system and configured to determine whether the robot lawnmower is in a teachable state, with the robot lawnmower localized and on traversable terrain, or in an unteachable state; and a controller in communication with the drive system , the localizing system , and the teach monitor , the controller comprising: a data processing device ; and non-transitory memory in communication with the data processing device; wherein the controller is configured to execute a teach routine when the controller is in a teach mode for tracing a confinement perimeter around the lawn as a human operator pilots the robot lawnmower with the robot lawnmower in the teachable state, while the teach routine stores perimeter positions (21a-f) determined by the localizing system in the non-transitory memory . a robot body ; a drive system supporting the robot body and configured to maneuver the robot lawnmower over a lawn ; a localizing system configured to determine perimeter positions (21a-f) of the robot lawnmower with respect to an origin; a teach monitor in communication with the localizing system and configured to determine whether the robot lawnmower is in a teachable state, with the robot lawnmower localized and on traversable terrain, or in an unteachable state; and a controller in communication with the drive system , the localizing system , and the teach monitor , the controller comprising: a data processing device ; and non-transitory memory in communication with the data processing device; a data processing device ; and non-transitory memory in communication with the data processing device; wherein the controller is configured to execute a teach routine when the controller is in a teach mode for tracing a confinement perimeter around the lawn as a human operator pilots the robot lawnmower with the robot lawnmower in the teachable state, while the teach routine stores perimeter positions (21a-f) determined by the localizing system in the non-transitory memory .