mhurhangee/patent-ind-claim-en huggingface dataset:
A method of fabricating a composite article , comprising: performing a pre-impregnation process to form a prepreg having a reinforcement impregnated with a resin, the pre-impregnation process performed at a predetermined rate; moulding the prepreg to form the composite article , each cycle of the moulding having a known cycle time and comprising: cutting a blank from the prepreg ; arranging the blank on a preforming mould to form a preformed blank , such that a shape of the blank when so arranged, corresponds approximately to a final shape of the composite article ; transferring the preformed blank from the preforming mould to a compression mould ; and applying heat and pressure to the preformed blank inside the compression mould so as to form the composite article , characterized in that the rate of the pre-impregnation process is predetermined based on the known cycle time of the moulding process, such that during each current moulding cycle the pre-impregnation process yields a quantity of prepreg to form the blank for use in a corresponding next moulding cycle; and wherein the step of moulding the prepreg is performed one moulding-cycle after the step of performing the pre-impregnation process to form the prepreg . performing a pre-impregnation process to form a prepreg having a reinforcement impregnated with a resin, the pre-impregnation process performed at a predetermined rate; moulding the prepreg to form the composite article , each cycle of the moulding having a known cycle time and comprising: cutting a blank from the prepreg ; arranging the blank on a preforming mould to form a preformed blank , such that a shape of the blank when so arranged, corresponds approximately to a final shape of the composite article ; transferring the preformed blank from the preforming mould to a compression mould ; and applying heat and pressure to the preformed blank inside the compression mould so as to form the composite article , characterized in that the rate of the pre-impregnation process is predetermined based on the known cycle time of the moulding process, such that during each current moulding cycle the pre-impregnation process yields a quantity of prepreg to form the blank for use in a corresponding next moulding cycle; and cutting a blank from the prepreg ; arranging the blank on a preforming mould to form a preformed blank , such that a shape of the blank when so arranged, corresponds approximately to a final shape of the composite article ; transferring the preformed blank from the preforming mould to a compression mould ; and applying heat and pressure to the preformed blank inside the compression mould so as to form the composite article , wherein the step of moulding the prepreg is performed one moulding-cycle after the step of performing the pre-impregnation process to form the prepreg .
An optical excitation system for a particle sensor, the system comprising a substrate , wherein the substrate comprises - at least one delivery means for delivering analytes into at least one region of interest , - at least one radiation carrier for carrying radiation and directing at least one radiation beam from the at least one radiation carrier into the at least one region of interest , the optical excitation system being characterized in that it further comprises - a thin lens system comprising at least a first thin film lens integrated in or on the substrate , for collimating radiation from the at least one region of interest to a remote detection system . - at least one delivery means for delivering analytes into at least one region of interest , - at least one radiation carrier for carrying radiation and directing at least one radiation beam from the at least one radiation carrier into the at least one region of interest , - a thin lens system comprising at least a first thin film lens integrated in or on the substrate , for collimating radiation from the at least one region of interest to a remote detection system .
A system comprising: a first element implantable via a first implant-access incision in a first patient body region comprising a head-and-neck region, and a second element implantable via the first implant-access incision in the head-and-neck region and comprising a stimulation electrode and a microstimulator which is electrically connected to the stimulation electrode, wherein the first element is electrically connected to the microstimulator, wherein the first element is configured to sense, via sensing electroencephalography (EEG) information, first physiologic information in the head-and-neck region comprising respiratory information, wherein the respiratory information comprises respiratory cycle information including inspiratory phase information and expiratory phase information; and wherein the second element is configured to stimulate tissue comprising an upper airway patency-related nerve to treat obstructive sleep apnea, via the electrode, in the first patient body region, wherein the upper airway patency-related nerve comprises a hypoglossal nerve, and wherein the second element is configured to perform the delivery of stimulation in a closed loop manner synchronized relative to the sensed inspiratory phase information or the sensed expiratory phase information. a first element implantable via a first implant-access incision in a first patient body region comprising a head-and-neck region, and a second element implantable via the first implant-access incision in the head-and-neck region and comprising a stimulation electrode and a microstimulator which is electrically connected to the stimulation electrode, wherein the first element is configured to sense, via sensing electroencephalography (EEG) information, first physiologic information in the head-and-neck region comprising respiratory information, wherein the respiratory information comprises respiratory cycle information including inspiratory phase information and expiratory phase information; and wherein the second element is configured to stimulate tissue comprising an upper airway patency-related nerve to treat obstructive sleep apnea, via the electrode, in the first patient body region, wherein the upper airway patency-related nerve comprises a hypoglossal nerve, and wherein the second element is configured to perform the delivery of stimulation in a closed loop manner synchronized relative to the sensed inspiratory phase information or the sensed expiratory phase information.
An apparatus comprising: a radar circuit with signal transmission circuitry configured to transmit radar signals and with signal reception circuitry configured to receive, in response, reflection signals as reflections from objects; and computer processing circuitry configured to process data corresponding to the reflection signals in a multi-input multi-output, MIMO, virtual array having at least two embedded uniform sparse linear arrays , each of the at least two embedded uniform sparse linear arrays being associated with a unique antenna-element spacing from among a set of unique co-prime antenna-element spacings, wherein one of the at least two embedded uniform sparse linear arrays and another of the at least two embedded uniform sparse linear arrays have respective spacing values that form a co-prime pair , and characterized in that the co-prime pair is selected such that a composite array of the at least two embedded uniform sparse linear arrays results in an array of an aperture of the size equal to the lowest common multiple of their product and of a number of antenna elements equal to the number of physical receiving antenna elements plus one. a radar circuit with signal transmission circuitry configured to transmit radar signals and with signal reception circuitry configured to receive, in response, reflection signals as reflections from objects; and computer processing circuitry configured to process data corresponding to the reflection signals in a multi-input multi-output, MIMO, virtual array having at least two embedded uniform sparse linear arrays , each of the at least two embedded uniform sparse linear arrays being associated with a unique antenna-element spacing from among a set of unique co-prime antenna-element spacings, wherein one of the at least two embedded uniform sparse linear arrays and another of the at least two embedded uniform sparse linear arrays have respective spacing values that form a co-prime pair , and characterized in that the co-prime pair is selected such that a composite array of the at least two embedded uniform sparse linear arrays results in an array of an aperture of the size equal to the lowest common multiple of their product and of a number of antenna elements equal to the number of physical receiving antenna elements plus one.
Expansion anchor comprising: a tubular sleeve having a longitudinal axis (A), an expansion nut , and a tightening screw designed in such a way as to move the expansion nut along said longitudinal axis (A) inside said tubular sleeve so as to expand the latter; said expansion anchor being characterized in that : said tubular sleeve comprises two tubular bodies inserted one inside the other; a first tubular body is made of rigid material and has a number of longitudinal anchoring tabs , which are spaced apart from one another angularly around said longitudinal axis (A) and which define, in pairs, respective longitudinal slots ; a second tubular body is made of easily deformable/flexible material and has a number of longitudinal anchoring segments which extend parallel to said longitudinal axis (A) and which are respectively arranged in said slots . a first tubular body is made of rigid material and has a number of longitudinal anchoring tabs , which are spaced apart from one another angularly around said longitudinal axis (A) and which define, in pairs, respective longitudinal slots ; a second tubular body is made of easily deformable/flexible material and has a number of longitudinal anchoring segments which extend parallel to said longitudinal axis (A) and which are respectively arranged in said slots .
A hinge for a toilet seat set formed of a lid and a seat, comprising: a rotary damper for decelerating the lowering motion of the lid or the seat about a pivot axis (S) of the toilet seat set, an adapter piece coupled to the rotary damper coaxially along the pivot axis (S), a hinge bolt engaging in a receiving bore formed in the adapter piece , and a fixing base on which the hinge bolt is held and which is attachable to a toilet bowl, an outer tube surrounding at least the adapter piece and having a through hole through which the hinge bolt engages in the receiving bore of the adapter piece , and wherein also the receiving bore of the adapter piece is formed as a through hole and the outer tube has a contact surface resting on a support surface formed on the fixing base , characterized in that the contact surface of the outer tube and the support surface of the fixing base are conically formed surfaces. a rotary damper for decelerating the lowering motion of the lid or the seat about a pivot axis (S) of the toilet seat set, an adapter piece coupled to the rotary damper coaxially along the pivot axis (S), a hinge bolt engaging in a receiving bore formed in the adapter piece , and a fixing base on which the hinge bolt is held and which is attachable to a toilet bowl, an outer tube surrounding at least the adapter piece and having a through hole through which the hinge bolt engages in the receiving bore of the adapter piece , and wherein also the receiving bore of the adapter piece is formed as a through hole and the outer tube has a contact surface resting on a support surface formed on the fixing base , characterized in that the contact surface of the outer tube and the support surface of the fixing base are conically formed surfaces.
A copper alloy strip which is a rolled material, the rolled material containing: from 0 to 5.0% by mass of Ni and/or from 0 to 2.5% by mass of Co, the total amount of Ni + Co being from 0.2 to 5.0% by mass; from 0.2 to 1.5% by mass of Si; and optionally one or more of Sn, Zn, Mg, Cr and Mn in a total amount of from 0.005 to 2.0% by mass, the balance being copper and unavoidable impurities, wherein the rolled material satisfies the relationship: A 0 /A ≤ 1.000, in which A 0 represents a projected area of an indentation remaining after carrying out a Vickers hardness test by maintaining a square pyramidal indenter for 10 seconds while applying a test force with a load of 1 kg to a surface of a base material and releasing the test force; and A represents an area connecting vertices of the indenter, and wherein the rolled material satisfies the relationship: 0.1 ≤ I /I 0 < 1.0, in which I represents an integrated X-ray diffraction intensity of a diffraction peak of a plane by conducting a measurement of θ/2θ on a plate surface of a rolled material sample, and I 0 represents an integrated X-ray diffraction intensity of a plane by conducting at the same time a measurement of a randomly oriented pure copper powder sample, the X-ray diffractometer used to make the measurements being operated under the following conditions: Target: Co tube; Tube Voltage: 30 kV; Tube Current: 100 mA; Scanning Speed: 5°/min; Sampling Width: 0.02°; and Measurement Range (2θ): 5° to 150°. from 0 to 5.0% by mass of Ni and/or from 0 to 2.5% by mass of Co, the total amount of Ni + Co being from 0.2 to 5.0% by mass; from 0.2 to 1.5% by mass of Si; and optionally one or more of Sn, Zn, Mg, Cr and Mn in a total amount of from 0.005 to 2.0% by mass, the balance being copper and unavoidable impurities, wherein the rolled material satisfies the relationship: A 0 /A ≤ 1.000, in which A 0 represents a projected area of an indentation remaining after carrying out a Vickers hardness test by maintaining a square pyramidal indenter for 10 seconds while applying a test force with a load of 1 kg to a surface of a base material and releasing the test force; and A represents an area connecting vertices of the indenter, and wherein the rolled material satisfies the relationship: 0.1 ≤ I /I 0 < 1.0, in which I represents an integrated X-ray diffraction intensity of a diffraction peak of a plane by conducting a measurement of θ/2θ on a plate surface of a rolled material sample, and I 0 represents an integrated X-ray diffraction intensity of a plane by conducting at the same time a measurement of a randomly oriented pure copper powder sample, the X-ray diffractometer used to make the measurements being operated under the following conditions: Target: Co tube; Tube Voltage: 30 kV; Tube Current: 100 mA; Scanning Speed: 5°/min; Sampling Width: 0.02°; and Measurement Range (2θ): 5° to 150°. Target: Co tube; Tube Voltage: 30 kV; Tube Current: 100 mA; Scanning Speed: 5°/min; Sampling Width: 0.02°; and Measurement Range (2θ): 5° to 150°.
A temperature sensor array configured to receive temperature information associated with an area, the temperature sensor array comprising: a base , and a plurality of temperature sensing devices associated with the base such that the temperature sensing devices are arranged to monitor the temperature of the area, where at least one of the temperature sensing devices is oriented at an angle with respect to the base that differs from an angle with respect to the base at which at least one other temperature sensing device is oriented with respect to the base , characterised in that the base is a planar base, and the temperature sensing devices are aimed at multiple-fixed aiming points located on the area to be observed, the temperature sensing devices being mounted and arranged in the base to aim at slightly differing angles from one another. a base , and a plurality of temperature sensing devices associated with the base such that the temperature sensing devices are arranged to monitor the temperature of the area, where at least one of the temperature sensing devices is oriented at an angle with respect to the base that differs from an angle with respect to the base at which at least one other temperature sensing device is oriented with respect to the base , characterised in that the base is a planar base, and the temperature sensing devices are aimed at multiple-fixed aiming points located on the area to be observed, the temperature sensing devices being mounted and arranged in the base to aim at slightly differing angles from one another.
A polyamide composition comprising a) from 34.98 to 89.98% by weight of at least one synthetic polyamide as component A and b) from 0.01 to 1.0% by weight of a chromium complex dye selected from the compounds of the formulae A1), A2) and A3) and mixtures of two or three of these compounds a s component B, c) from 0.01 to 1% by weight of carbon black as component C, d) from 10 to 65% by weight of glass fibers as component D, e) from 0 to 50% by weight of other additional substances as component E, where the quantities stated, which give a total of 100% by weight, are based on the entire composition and the composition comprises at most 0.05% by weight of nigrosin. a) from 34.98 to 89.98% by weight of at least one synthetic polyamide as component A and b) from 0.01 to 1.0% by weight of a chromium complex dye selected from the compounds of the formulae A1), A2) and A3) and mixtures of two or three of these compounds a s component B, c) from 0.01 to 1% by weight of carbon black as component C, d) from 10 to 65% by weight of glass fibers as component D, e) from 0 to 50% by weight of other additional substances as component E, where the quantities stated, which give a total of 100% by weight, are based on the entire composition and the composition comprises at most 0.05% by weight of nigrosin.
A method of encryption implemented by a terminal comprising an operating system accessible by a plurality of users and a module for encrypting data to be sent to another terminal, the method comprising steps of: • detecting a user opening access to the operating system, • in response to the detecting of opening, setting the encryption module with a user-specific encryption key to encrypt data to be sent to the other terminal, wherein the encryption key is generated by the terminal, or is stored in a memory of the terminal prior to the access opening detection , the method further comprising the following steps of: • generating or loading from a terminal memory of a decryption key (K) adapted to decrypt payload data encrypted by means of the encryption key, • sending the decryption key (K) to a control server , • sending , to the control server , information (S1, S2) indicative of the opening and/or closing of access to the operating system by the user, the control server being adapted to control the use of the decryption key (K) by another terminal as a function of the last indicative information sent. • detecting a user opening access to the operating system, • in response to the detecting of opening, setting the encryption module with a user-specific encryption key to encrypt data to be sent to the other terminal, • generating or loading from a terminal memory of a decryption key (K) adapted to decrypt payload data encrypted by means of the encryption key, • sending the decryption key (K) to a control server , • sending , to the control server , information (S1, S2) indicative of the opening and/or closing of access to the operating system by the user, the control server being adapted to control the use of the decryption key (K) by another terminal as a function of the last indicative information sent.
A method, at a management infrastructure in an enterprise network, for installing apps on a device, wherein the management infrastructure comprises a content server and a management service, and wherein the device comprises a user interface and an agent that communicates with the management infrastructure, the method comprising: receiving , from the user interface of the device, a request that an app requested by a user be installed, the app pertaining to the content server of the management infrastructure; receiving , from the agent, a request to get app details; receiving , from the agent, a request to get app content; receiving , by the management service, information from the agent that the app has been installed; receiving, from the agent, an inventory of apps currently installed on the device, wherein the inventory is restricted to apps from the content server; and performing management of the apps of the inventory at the management infrastructure. receiving , from the user interface of the device, a request that an app requested by a user be installed, the app pertaining to the content server of the management infrastructure; receiving , from the agent, a request to get app details; receiving , from the agent, a request to get app content; receiving , by the management service, information from the agent that the app has been installed; receiving, from the agent, an inventory of apps currently installed on the device, wherein the inventory is restricted to apps from the content server; and performing management of the apps of the inventory at the management infrastructure.
Method for controlling the delivery rate (P Q ) of a concrete pump for filling a formwork arrangement with a pumpable filling compound as a function of curing-relevant material and environmental parameters (RST), after which the installed filling compound sets within the formwork arrangement , comprising the step: - determining a permissible rate of ascent (vsz) for filling the formwork arrangement with the filling compound on the basis of the material and ambient parameters (RST) and is characterized by the following additional steps: - measuring the static filling compound pressure (p F ) acting on the formwork arrangement during filling, - calculating the permissible delivery rate (P Q ) of the concrete pump as a function of the determined permissible rate of ascent (vsz) and the measured static filling compound pressure (p F ) at the formwork arrangement . - determining a permissible rate of ascent (vsz) for filling the formwork arrangement with the filling compound on the basis of the material and ambient parameters (RST) and is characterized by the following additional steps: - measuring the static filling compound pressure (p F ) acting on the formwork arrangement during filling, - calculating the permissible delivery rate (P Q ) of the concrete pump as a function of the determined permissible rate of ascent (vsz) and the measured static filling compound pressure (p F ) at the formwork arrangement .
An emulsion comprising (i) a continuous aqueous phase, (ii) an disperse oil phase comprising a cannabinoid, and (iii) an emulsifier which is gum arabic, wherein the weight ratio of gum arabic to said disperse oil phase is ≥ 3:1, and wherein the weight fraction of the disperse oil phase in the emulsion is from 1 to 20 wt.% based on the weight of the emulsion, or from 2 to 15 wt.% based on the weight of the emulsion.
Cooling device , particularly a domestic refrigerator, comprising a storage space defined by a body and by a door , further comprising an air channel formed within a space at least partially filled with isolation material between an inner wall of the storage space and an outer wall of the cooling device , further comprising at least one opening provided on the inner wall and opened to the air channel , comprising a baffle positioned completely within the air channel , whereas the baffle comprises a support element facing a rear surface or rear side of the inner wall and supporting the inner wall , wherein the baffle comprises a support element contacting a wall segment of the air channel, characterized in that the support element of the baffle contacts a wall segment of a rear wall of the air channel , lying opposite the opening of the inner wall , thus preventing the baffle from being pushed or deflected towards that rear wall.