mhurhangee/patent-ind-claim-en huggingface dataset:
A sockliner assembly comprising: a sockliner with an upper surface, an opposing lower surface , and a peripheral edge defining the upper and lower surfaces; and a first cable with a first attached cable segment and a first free cable segment, wherein the first attached cable segment is coupled to the lower surface of the sockliner, and wherein the first free cable segment extends from the first attached cable segment and extends beyond the peripheral edge of the sockliner, wherein: the sockliner includes an opening that extends from the upper surface to the lower surface of the sockliner, the first attached cable segment is attached to the lower surface of the sockliner on a lateral side of the opening, the first free cable segment extends along the lower surface of the sockliner from the lateral side of the opening, across the opening, and to a medial side of the opening, and the opening has a first width when the first cable is in an untensed configuration, and exerting a tensile force on the first free cable segment in a medial direction pulls the first attached cable segment in the medial direction and reduces a width of the opening from the first width to a second width. a sockliner with an upper surface, an opposing lower surface , and a peripheral edge defining the upper and lower surfaces; and a first cable with a first attached cable segment and a first free cable segment, wherein the first attached cable segment is coupled to the lower surface of the sockliner, and wherein the first free cable segment extends from the first attached cable segment and extends beyond the peripheral edge of the sockliner, wherein: the sockliner includes an opening that extends from the upper surface to the lower surface of the sockliner, the first attached cable segment is attached to the lower surface of the sockliner on a lateral side of the opening, the first free cable segment extends along the lower surface of the sockliner from the lateral side of the opening, across the opening, and to a medial side of the opening, and the opening has a first width when the first cable is in an untensed configuration, and exerting a tensile force on the first free cable segment in a medial direction pulls the first attached cable segment in the medial direction and reduces a width of the opening from the first width to a second width. the sockliner includes an opening that extends from the upper surface to the lower surface of the sockliner, the first attached cable segment is attached to the lower surface of the sockliner on a lateral side of the opening, the first free cable segment extends along the lower surface of the sockliner from the lateral side of the opening, across the opening, and to a medial side of the opening, and the opening has a first width when the first cable is in an untensed configuration, and exerting a tensile force on the first free cable segment in a medial direction pulls the first attached cable segment in the medial direction and reduces a width of the opening from the first width to a second width.
A method for on-site connecting a first end and a second end of similar shapes and made of thermoplastic material, in particular of thermoplastic polyurethane, of an open seal or respectively a first seal and a second seal on a surface to be sealed, as it comprises the steps of: - bringing and mounting on site a connection device and positioning it on the surface to be sealed, beneath the first end and the second end to be connected, - injecting under heat between the first end and the second end a thermoplastic material identical to that of the first end and the second end, by means of the previously mounted connection device , - cooling or allowing the thermoplastic material injected between the first end and the second end to cool, - keeping the injected thermoplastic material under pressure during the cooling step, - dismounting the connection device , in which the step of mounting the connection device comprises the steps of: - placing a first portion of a base of the connection device on the surface to be sealed, - positioning the first end and the second end against the first portion of the base , - fixing a second portion of the base against the first portion , so that the first end and the second end are positioned in a cavity formed by the assembly of the first portion and the second portion , - fixing an injection head of the connection device on the base . - bringing and mounting on site a connection device and positioning it on the surface to be sealed, beneath the first end and the second end to be connected, - injecting under heat between the first end and the second end a thermoplastic material identical to that of the first end and the second end, by means of the previously mounted connection device , - cooling or allowing the thermoplastic material injected between the first end and the second end to cool, - keeping the injected thermoplastic material under pressure during the cooling step, - dismounting the connection device , - placing a first portion of a base of the connection device on the surface to be sealed, - positioning the first end and the second end against the first portion of the base , - fixing a second portion of the base against the first portion , so that the first end and the second end are positioned in a cavity formed by the assembly of the first portion and the second portion , - fixing an injection head of the connection device on the base .
A method performed by a mobile operating server to connect a mobile device to a network, the method comprising: determining that there is no authenticated access point accessible to the mobile device ; in accordance with the determination, identifying a non-authenticated access point accessible to the mobile device , wherein the non-authenticated access point has a capacity above a threshold value, and wherein a determination whether the non-authenticated access point has a capacity above the threshold value is made in consideration of a task to be executed in the mobile device ; and instructing the mobile device to wirelessly connect to the non-authenticated access point . determining that there is no authenticated access point accessible to the mobile device ; in accordance with the determination, identifying a non-authenticated access point accessible to the mobile device , wherein the non-authenticated access point has a capacity above a threshold value, and wherein a determination whether the non-authenticated access point has a capacity above the threshold value is made in consideration of a task to be executed in the mobile device ; and instructing the mobile device to wirelessly connect to the non-authenticated access point .
A nanobubble-containing inorganic oxide fine particle dispersion comprising: inorganic oxide fine particles having an average particle size of 1 to 500 nm and containing fine particles containing Ce; and nanobubbles having an average cell size of 50 to 500 nm and being at least one non-oxidizing gas selected from a group consisting of N 2 and H 2 , the average particle size is measured with a transmission electron microscope by the image analysis method, and the average cell size is measured by the nanoparticle tracking analysis. inorganic oxide fine particles having an average particle size of 1 to 500 nm and containing fine particles containing Ce; and nanobubbles having an average cell size of 50 to 500 nm and being at least one non-oxidizing gas selected from a group consisting of N 2 and H 2 , the average particle size is measured with a transmission electron microscope by the image analysis method, and the average cell size is measured by the nanoparticle tracking analysis.
A method, comprising: placing an array of pick-up heads over or on semiconductor devices on a carrier substrate ; selectively operating a subset of pick-up heads to attach a subset of the semiconductor devices to the subset of pick-up heads by a suction force responsive to placing the array of pick-up heads over or on the semiconductor devices ; placing at least the subset of pick-up heads with the subset of semiconductor devices attached over or on a target substrate ; and releasing the subset of the semiconductor devices onto the target substrate responsive to placing the at least the subset of pick-up heads over or on the target substrate , the method being characterized in that the suction force is created by operating a membrane (206/216) that places vacuum chambers of the subset of pick-up heads at a pressure that is lower than ambient pressure, the vacuum chambers connected to apertures in the pick-up head to which the subset of semiconductor devices attach. placing an array of pick-up heads over or on semiconductor devices on a carrier substrate ; selectively operating a subset of pick-up heads to attach a subset of the semiconductor devices to the subset of pick-up heads by a suction force responsive to placing the array of pick-up heads over or on the semiconductor devices ; placing at least the subset of pick-up heads with the subset of semiconductor devices attached over or on a target substrate ; and releasing the subset of the semiconductor devices onto the target substrate responsive to placing the at least the subset of pick-up heads over or on the target substrate , the method being characterized in that the suction force is created by operating a membrane (206/216) that places vacuum chambers of the subset of pick-up heads at a pressure that is lower than ambient pressure, the vacuum chambers connected to apertures in the pick-up head to which the subset of semiconductor devices attach.
An ancillary laundry composition comprising: (a) 2.5 - 30 w.t.% fabric softening silicone; (b) Less than 2 w.t.% surfactant; (c) 0.25 - 10 w.t.% cationic polymer (d) Water wherein the fabric softening silicone is an anionic functionalised silicone and the fabric softening silicone is an emulsion. (a) 2.5 - 30 w.t.% fabric softening silicone; (b) Less than 2 w.t.% surfactant; (c) 0.25 - 10 w.t.% cationic polymer (d) Water
A system comprising: an artificial intelligence, AI, pipeline comprising: a processor configured to: receive, from a user input, a prediction accuracy level provided by a customer; obtain, via one or more customer data sources, customer usage data associated with the customer from the one or more customer data sources , wherein the customer usage data is indicative of usage patterns of a plurality of cloud services used by the customer; generate, via a predictive model, predicted usage data based on the customer usage data, wherein the predicted usage data includes a prediction of an individual cloud service of the plurality of cloud services predicted to be used by the customer, and wherein the prediction of the individual cloud service is based on the prediction accuracy level; publish the predicted usage data; and a service orchestration server coupled to the AI pipeline, the service orchestration server configured to obtain the predicted usage data from the AI pipeline, and turn-up the individual cloud service based on the predicted usage data. an artificial intelligence, AI, pipeline comprising: a processor configured to: receive, from a user input, a prediction accuracy level provided by a customer; obtain, via one or more customer data sources, customer usage data associated with the customer from the one or more customer data sources , wherein the customer usage data is indicative of usage patterns of a plurality of cloud services used by the customer; generate, via a predictive model, predicted usage data based on the customer usage data, wherein the predicted usage data includes a prediction of an individual cloud service of the plurality of cloud services predicted to be used by the customer, and wherein the prediction of the individual cloud service is based on the prediction accuracy level; publish the predicted usage data; and receive, from a user input, a prediction accuracy level provided by a customer; obtain, via one or more customer data sources, customer usage data associated with the customer from the one or more customer data sources , wherein the customer usage data is indicative of usage patterns of a plurality of cloud services used by the customer; generate, via a predictive model, predicted usage data based on the customer usage data, wherein the predicted usage data includes a prediction of an individual cloud service of the plurality of cloud services predicted to be used by the customer, and wherein the prediction of the individual cloud service is based on the prediction accuracy level; publish the predicted usage data; and a service orchestration server coupled to the AI pipeline, the service orchestration server configured to obtain the predicted usage data from the AI pipeline, and turn-up the individual cloud service based on the predicted usage data.
Machine for packaging one or more products into containers, comprising a plurality of workstations adapted to carry out a sequence of packaging steps and an intermittent-rotation carousel which comprises a plurality of gripping members for said containers and is arranged to position the containers in sequence through said workstations, wherein said carousel is arranged with a horizontal axis of rotation and the gripping members are counter-rotating in a synchronous manner relative to the carousel so as to maintain a constant orientation of the containers, preferably in a vertical position, characterized in that the carousel comprises a plurality of radially arranged arms , each of said arms bearing one of said gripping members , and wherein each of the gripping members has a body which is hinged to a respective arm of the carousel and is connected to a transmission , wherein said transmission is configured to rotate the body relative to the arm , said rotation of the body being opposite and synchronised with respect to the rotation of the carousel about its axis. wherein said carousel is arranged with a horizontal axis of rotation and the gripping members are counter-rotating in a synchronous manner relative to the carousel so as to maintain a constant orientation of the containers, preferably in a vertical position, characterized in that the carousel comprises a plurality of radially arranged arms , each of said arms bearing one of said gripping members , and wherein each of the gripping members has a body which is hinged to a respective arm of the carousel and is connected to a transmission , wherein said transmission is configured to rotate the body relative to the arm , said rotation of the body being opposite and synchronised with respect to the rotation of the carousel about its axis.
An apparatus for impregnating fibers with a matrix material, comprising a unit for soaking the fibers with the matrix material and a unit for setting the fiber content by volume which comprises at least one opening by way of which the soaked fibers are guided, where each opening at the minimum opening cross section thereof is dimensioned such that so much matrix material is removed that the desired fiber content by volume is achieved, wherein the unit for setting the fiber content by volume comprises an upper part (101; 131) and a lower part (103; 133), and the opening is in each case partially configured in the lower part and partially in the upper part (101; 131).
Method for assessing a quality of a beam shaping device manufactured according to a planned device design for shaping one or more beams (100.i) of accelerated particles emitted by a particle accelerator system, the method comprising, (a) establishing with a treatment planning system, TPS, the planned device design of the beam shaping device suitable for shaping one or more beams (100.i) of accelerated particles to mate a geometry of a treatment volume (V) of tissue comprising tumoral cells , for depositing specific doses (Dij) into specific locations within the treatment volume (V) thus defining a planned dose distribution, pDD, satisfying objectives on the dose deposition in the treatment volume set by a physician, (b) manufacturing the beam shaping device according to the planned device design , (c) establishing a CT-scan of the beam shaping device to yield an actual CT-image , (d) determining dimensions and local materials densities from the actual CT-image , characterized in that, the method comprises, (e) extending the actual CT-image to include the treatment volume (V) and preferably one or more of a ridge filter , a range shifter and / or a range compensator not comprised in the beam shaping device , (f) determining with a dose engine, preferably the same as in the TPS used in step (a), a calculated dose distribution in the treatment volume (V) obtained by virtually irradiating the treatment volume (V) with the one or more beams through a virtual beam shaping device having a geometry and a density defined by the device actual CT-image , (g) comparing the calculated dose distribution, cDD, with a reference dose distribution, rDD. (a) establishing with a treatment planning system, TPS, the planned device design of the beam shaping device suitable for shaping one or more beams (100.i) of accelerated particles to mate a geometry of a treatment volume (V) of tissue comprising tumoral cells , for depositing specific doses (Dij) into specific locations within the treatment volume (V) thus defining a planned dose distribution, pDD, satisfying objectives on the dose deposition in the treatment volume set by a physician, (b) manufacturing the beam shaping device according to the planned device design , (c) establishing a CT-scan of the beam shaping device to yield an actual CT-image , (d) determining dimensions and local materials densities from the actual CT-image , characterized in that, the method comprises, (e) extending the actual CT-image to include the treatment volume (V) and preferably one or more of a ridge filter , a range shifter and / or a range compensator not comprised in the beam shaping device , (f) determining with a dose engine, preferably the same as in the TPS used in step (a), a calculated dose distribution in the treatment volume (V) obtained by virtually irradiating the treatment volume (V) with the one or more beams through a virtual beam shaping device having a geometry and a density defined by the device actual CT-image , (g) comparing the calculated dose distribution, cDD, with a reference dose distribution, rDD.
A server cooling system which comprises: - a condenser , - an evaporator , - an expansion valve and - a compressor , wherein: an outlet of the evaporator is connected to an inlet of the compressor by means of a first tube or conduit ; an outlet of the compressor is connected to an inlet of the condenser by means of a second conduit ; an outlet of the condenser is connected to the inlet of an expansion valve by means of a third tube or conduit , while the outlet of the expansion valve is connected to the inlet of the evaporator by means of a fourth conduit ; wherein - the expansion valve is an electronic expansion valve which regulates the amount of refrigerant so that in the outlet of the evaporator, the working fluid is in gas phase ; - the evaporation temperature used in the evaporator is ≥ 14°C, therefore condensation of water is not produced in the evaporator, resulting in lower energy consumption; characterised in that connected to the evaporator are some ventilators with variable speed depending on the heat to be dissipated and on the air flow expelled from server ventilators. - a condenser , - an evaporator , - an expansion valve and - a compressor , wherein: an outlet of the evaporator is connected to an inlet of the compressor by means of a first tube or conduit ; an outlet of the compressor is connected to an inlet of the condenser by means of a second conduit ; an outlet of the condenser is connected to the inlet of an expansion valve by means of a third tube or conduit , while the outlet of the expansion valve is connected to the inlet of the evaporator by means of a fourth conduit ; wherein - the expansion valve is an electronic expansion valve which regulates the amount of refrigerant so that in the outlet of the evaporator, the working fluid is in gas phase ; - the evaporation temperature used in the evaporator is ≥ 14°C, therefore condensation of water is not produced in the evaporator, resulting in lower energy consumption; characterised in that connected to the evaporator are some ventilators with variable speed depending on the heat to be dissipated and on the air flow expelled from server ventilators.
An ethylene copolymer having 1a) a density from 0.890 to 0.915 g/cm 3 , determined according to ASTM D792; 1b) a molecular weight distribution M w /M n from 2.2 to 4.5, determined according to ASTM 6474-99; 1c) a molecular weight distribution M z /M w of from 2.5 to 4, determined according to ASTM 6474-99, provided that when the M z /M w is greater than 3, the copolymer further has a normal to flat comonomer distribution, 1d) a CDBI 50 from 55 to 98, as determined by the method set out in the description, and 1e) a single peak in a DSC measurement, determined according to ASTM D3418-12; wherein the ethylene copolymer optionally exhibits a reverse comonomer distribution; wherein G' at G" (500 Pa) at 190°C is less than 40 Pa, as determined by the method set out in the description. 1a) a density from 0.890 to 0.915 g/cm 3 , determined according to ASTM D792; 1b) a molecular weight distribution M w /M n from 2.2 to 4.5, determined according to ASTM 6474-99; 1c) a molecular weight distribution M z /M w of from 2.5 to 4, determined according to ASTM 6474-99, provided that when the M z /M w is greater than 3, the copolymer further has a normal to flat comonomer distribution, 1d) a CDBI 50 from 55 to 98, as determined by the method set out in the description, and 1e) a single peak in a DSC measurement, determined according to ASTM D3418-12; wherein the ethylene copolymer optionally exhibits a reverse comonomer distribution; wherein G' at G" (500 Pa) at 190°C is less than 40 Pa, as determined by the method set out in the description.
A method for managing uplink transmissions in a license-assisted access, LAA, wireless communication system, comprising: receiving a first explicit uplink grant for transmission of a first protocol data unit, PDU, associated with a first Hybrid Automatic Repeat Request, HARQ, process; receiving a second explicit uplink grant for transmission of a second PDU associated with a second HARQ process, the second explicit uplink grant being received subsequent to the first explicit uplink grant; performing a first clear channel assessment, CCA, in response to the first explicit uplink grant in a first time slot; performing a second CCA in response to the second explicit uplink grant in a second time slot; and determining , in response to the first CCA failing and the second CCA succeeding, whether to transmit over an unlicensed or shared spectrum the first PDU or the second PDU in a time slot subsequent to the second time slot in association with the second HARQ process. receiving a first explicit uplink grant for transmission of a first protocol data unit, PDU, associated with a first Hybrid Automatic Repeat Request, HARQ, process; receiving a second explicit uplink grant for transmission of a second PDU associated with a second HARQ process, the second explicit uplink grant being received subsequent to the first explicit uplink grant; performing a first clear channel assessment, CCA, in response to the first explicit uplink grant in a first time slot; performing a second CCA in response to the second explicit uplink grant in a second time slot; and determining , in response to the first CCA failing and the second CCA succeeding, whether to transmit over an unlicensed or shared spectrum the first PDU or the second PDU in a time slot subsequent to the second time slot in association with the second HARQ process.