mhurhangee/ep-ind-claims huggingface dataset:
Method for sealing the mouth of at least one bottle by creating a capsule of sealing material around at least the neck of the bottle, including the following subsequent steps: a) rotation or rototranslation of the bottle around a horizontal axis from an initial position to an immersion position, in which immersion position the bottle has the neck facing downwards and immersed at least partially in a bath of said sealing material in a molten state; b) rototranslation of the bottle around the horizontal axis up to a first dripping position, in which first dripping position the bottle is completely extracted from the sealing material bath and has the neck facing downwards and has its longitudinal axis inclined compared to a vertical plane, which vertical plane passes through the horizontal axis of rotation or rototranslation of the bottle characterized in that it further includes the following subsequent steps: c) rotation or rototranslation of the bottle around the horizontal axis in a second dripping position, in which second dripping position the bottle is completely extracted from the sealing material bath and has the neck facing downwards and has its longitudinal axis inclined with respect to said vertical plane in opposite direction compared to said first dripping position; d) rotation or rototranslation of the bottle around the horizontal axis to a final position. a) rotation or rototranslation of the bottle around a horizontal axis from an initial position to an immersion position, in which immersion position the bottle has the neck facing downwards and immersed at least partially in a bath of said sealing material in a molten state; b) rototranslation of the bottle around the horizontal axis up to a first dripping position, in which first dripping position the bottle is completely extracted from the sealing material bath and has the neck facing downwards and has its longitudinal axis inclined compared to a vertical plane, which vertical plane passes through the horizontal axis of rotation or rototranslation of the bottle characterized in that it further includes the following subsequent steps: c) rotation or rototranslation of the bottle around the horizontal axis in a second dripping position, in which second dripping position the bottle is completely extracted from the sealing material bath and has the neck facing downwards and has its longitudinal axis inclined with respect to said vertical plane in opposite direction compared to said first dripping position; d) rotation or rototranslation of the bottle around the horizontal axis to a final position.
A data processing system configured to mount on a vehicle, the data processing system comprising: communication circuitry configured to: receive sensor data from a sensor on the vehicle, wherein the sensor data indicates a contamination level of a supply air for the vehicle; and receive context data from another system on the vehicle; and processing circuitry configured to: determine an extent to which the contamination level exceeds a baseline level, wherein the baseline level is an indication of the historical level of contamination at a location on the vehicle and/or at a geographic location of the vehicle; and generate a recommended maintenance item to be performed on the vehicle based on the sensor data and further based on the context data. communication circuitry configured to: receive sensor data from a sensor on the vehicle, wherein the sensor data indicates a contamination level of a supply air for the vehicle; and receive context data from another system on the vehicle; and receive sensor data from a sensor on the vehicle, wherein the sensor data indicates a contamination level of a supply air for the vehicle; and receive context data from another system on the vehicle; and processing circuitry configured to: determine an extent to which the contamination level exceeds a baseline level, wherein the baseline level is an indication of the historical level of contamination at a location on the vehicle and/or at a geographic location of the vehicle; and generate a recommended maintenance item to be performed on the vehicle based on the sensor data and further based on the context data. determine an extent to which the contamination level exceeds a baseline level, wherein the baseline level is an indication of the historical level of contamination at a location on the vehicle and/or at a geographic location of the vehicle; and generate a recommended maintenance item to be performed on the vehicle based on the sensor data and further based on the context data.
A method of operation of a user equipment device in a cellular communications network, comprising: receiving multiple Zero-Power, ZP, Channel State Information Reference Signal, CSI-RS, configurations from the cellular communications network, the multiple ZP CSI-RS configurations comprising a first ZP CSI-RS configuration for small-cell or transmission point discovery and a second ZP CSI-RS configuration for a purpose other than small-cell or transmission point discovery, the other purpose comprising a legacy purpose; and performing one or more actions based on an assumption that, within a subframe, a set of resource elements defined by a union of all resource elements in the multiple ZP CSI-RS configurations are muted. receiving multiple Zero-Power, ZP, Channel State Information Reference Signal, CSI-RS, configurations from the cellular communications network, the multiple ZP CSI-RS configurations comprising a first ZP CSI-RS configuration for small-cell or transmission point discovery and a second ZP CSI-RS configuration for a purpose other than small-cell or transmission point discovery, the other purpose comprising a legacy purpose; and performing one or more actions based on an assumption that, within a subframe, a set of resource elements defined by a union of all resource elements in the multiple ZP CSI-RS configurations are muted.
A monitoring unit arranged to be operably connected to a medicament delivery device, said medicament delivery device comprising a manually operated movable dose activation element, said monitoring device comprising an electronic circuit, said electronic circuit comprising an optical sensor for measuring the movement of the dose activation element, wherein said optical sensor is arranged to scan the surface of said dose activation element, so as to detect a manual operation of said dose activating element from an initial position; said electronics circuit further comprising a vibration sensor, wherein said vibration sensor is positioned in relation to said medicament delivery device so as to detect specific vibration spectra produced by the medicament delivery device when said dose activating element is operated, characterized in that said electronic circuit comprises computing elements capable of correlating the information from the optical sensor with the information from the vibration sensor when said dose activation element is operated in order to register when a correct dose has been set, wherein the specific vibration spectra is produced by the medicament delivery device at predetermined dose quantity intervals, and wherein said vibration sensor is an accelerometer, wherein the accelerometer is arranged to detect and record the clicks as a dose of medicament is set by the user turning the dose activating element. said monitoring device comprising an electronic circuit, said electronic circuit comprising an optical sensor for measuring the movement of the dose activation element, wherein said optical sensor is arranged to scan the surface of said dose activation element, so as to detect a manual operation of said dose activating element from an initial position; said electronics circuit further comprising a vibration sensor, wherein said vibration sensor is positioned in relation to said medicament delivery device so as to detect specific vibration spectra produced by the medicament delivery device when said dose activating element is operated, characterized in that said electronic circuit comprises computing elements capable of correlating the information from the optical sensor with the information from the vibration sensor when said dose activation element is operated in order to register when a correct dose has been set, wherein the specific vibration spectra is produced by the medicament delivery device at predetermined dose quantity intervals, and wherein said vibration sensor is an accelerometer, wherein the accelerometer is arranged to detect and record the clicks as a dose of medicament is set by the user turning the dose activating element.
Light emitting device (100, 600), comprising a plurality of light sources and a light guide plate, wherein said light guide plate has a light exit surface and an opposed light entrance surface facing said plurality of light sources, wherein said light entrance surface is arranged for in-coupling of light emitted by the light sources into the light guide plate, wherein at least part of the in-coupled light is transmitted within the light guide plate by total internal reflection so that light from different light sources is mixed within the light guide plate and wherein at least part of said light exit surface is provided with an optical structure for out-coupling of light and wherein the light emitting device (100, 600) further comprises reflective shielding provided at positions where the flux of the direct light of the light sources towards the light guide plate have their maximum density in a powered state of the light sources, wherein a plurality of optical structures are provided as separate exit windows over the light exit surface of the light guide plate and wherein at least a part of the non-structured area of the light exit surface of said light guide plate is flat, wherein said reflective shielding is mounted on light guide plate either on the flat non-structured area of the light exit surface or on the light entrance surface opposite the flat non-structured area of the light exit surface.
A method for measuring the electric field of electromagnetic radiation using the spectroscopic responses of Rydberg atoms to the radiation to be measured, comprising: calculating predetermined atomic spectra for atoms of a known type using non-perturbative Floquet theory; propagating an unknown electromagnetic radiation field towards the atoms, where the atoms are in a gas state and contained in a vacuum enclosure; propagating one or more light beams (13A, 13B) through the atoms, where at least one light beam is coupled to at least one Rydberg state of the atoms; measuring an atomic spectrum using the one or more light beams while the unknown electromagnetic radiation is interacting with or has interacted with the atoms; analyzing the measured atomic spectrum to extract spectral features; comparing the spectral features from the measured atomic spectrum to spectral features of the predetermined atomic spectra; and matching the measured atomic spectrum to a given spectrum in the predetermined atomic spectra, thereby quantifying one of field strength or frequency of the unknown electromagnetic radiation field. calculating predetermined atomic spectra for atoms of a known type using non-perturbative Floquet theory; propagating an unknown electromagnetic radiation field towards the atoms, where the atoms are in a gas state and contained in a vacuum enclosure; propagating one or more light beams (13A, 13B) through the atoms, where at least one light beam is coupled to at least one Rydberg state of the atoms; measuring an atomic spectrum using the one or more light beams while the unknown electromagnetic radiation is interacting with or has interacted with the atoms; analyzing the measured atomic spectrum to extract spectral features; comparing the spectral features from the measured atomic spectrum to spectral features of the predetermined atomic spectra; and matching the measured atomic spectrum to a given spectrum in the predetermined atomic spectra, thereby quantifying one of field strength or frequency of the unknown electromagnetic radiation field.
A method for responding to user input on a personal electronic device with a touch-sensitive screen, the method comprising: receiving a series of datapoints representing a user input touch from the touch-sensitive screen wherein values of a datapoint comprise an amplitude, wherein the values of a datapoint also comprise a size of the user input touch, and in that the method further comprises: for each of a plurality of the received datapoints: comparing datapoints in the series with one another until a variation in the datapoints fulfills a first pre-defined criterion; when the first predefined criterion is met, defining a baseline datapoint of the user input touch as the datapoint which is current when the first predefined criterion is met; and computing an associated pressure of the datapoint as the amplitude of the datapoint divided by a square root of the size of the baseline datapoint of the user input touch; associating at least one rate of change of pressure with at least a subset of the datapoints based on the associated pressures of at least the subset of the datapoints; and based, at least in part, on the associated rate of change of pressure information, performing a user-interface action. receiving a series of datapoints representing a user input touch from the touch-sensitive screen wherein values of a datapoint comprise an amplitude, wherein the values of a datapoint also comprise a size of the user input touch, and in that the method further comprises: for each of a plurality of the received datapoints: comparing datapoints in the series with one another until a variation in the datapoints fulfills a first pre-defined criterion; when the first predefined criterion is met, defining a baseline datapoint of the user input touch as the datapoint which is current when the first predefined criterion is met; and computing an associated pressure of the datapoint as the amplitude of the datapoint divided by a square root of the size of the baseline datapoint of the user input touch; comparing datapoints in the series with one another until a variation in the datapoints fulfills a first pre-defined criterion; when the first predefined criterion is met, defining a baseline datapoint of the user input touch as the datapoint which is current when the first predefined criterion is met; and computing an associated pressure of the datapoint as the amplitude of the datapoint divided by a square root of the size of the baseline datapoint of the user input touch; associating at least one rate of change of pressure with at least a subset of the datapoints based on the associated pressures of at least the subset of the datapoints; and based, at least in part, on the associated rate of change of pressure information, performing a user-interface action.
Method for authenticating an access authorization by means of an access control system, wherein the access control system comprises a terminal and an ID token which are designed to communicate with one another via a secure channel in the form of a session, wherein, in order to re-establish the session between the terminal and the ID token, a session-specific randomized attribute based on a unique identifier (TUID) of the terminal is generated and is stored at least in the terminal with an assignment to its own specific session context, wherein, in order to re-establish the session between the terminal and the ID token, the terminal transmits, to the ID token, the unique terminal identifier (TUID), on the basis of which the ID token determines the associated randomized attribute in a manner based on the session context and sends it to the terminal.
Dermal fibroblasts for use in a method of treating an individual in need of cartilage repair, the method comprising differentiating human dermal fibroblasts into chondrocyte-like cells in vivo by delivering dermal fibroblasts to a joint of an individual, wherein prior to delivery the dermal fibroblasts are not subjected to growth factors, matrix molecules, mechanical strain, or a combination thereof.
An anti-ice accretion panel for an aircraft comprising a metallic honeycomb layer disposed between a perforated surface layer (7,13) on an airflow facing side of the panel and a composite support layer on a second opposing side of said panel, wherein the composite material support layer comprises an embedded electrical heater configured to conduct heat to the perforated surface layer through the metallic honeycomb layer.
A method for wireless communication, performed at a network entity comprising: receiving channel direction information from a plurality of user equipments (UEs), wherein receiving CDI from the plurality of UEs comprises receiving at least one eigenvector of a channel matrix from each of the plurality of UEs; and scheduling at least one UE among the plurality of UEs for data transmission based on the CDI from the plurality of UEs, wherein the scheduling the at least one UE comprises determining a plurality of sets of UEs based on the plurality of UEs, determining a precoding vector for each UE in each set of UEs based on eigenvectors for all UEs in the sets of UEs, determining a metric for each set of UEs based on precoding vectors for all UEs in the sets of UEs, wherein the determining the metric for each set of UEs comprises determining a spectral efficiency for each UE in each set of UEs based on the precoding vectors for all UEs in the sets of UEs, and determining the metric for each set of UEs based on spectral efficiencies for all UEs in the sets of UEs, and selecting a set of UEs for scheduling based on the metric for each set of UEs. receiving channel direction information from a plurality of user equipments (UEs), wherein receiving CDI from the plurality of UEs comprises receiving at least one eigenvector of a channel matrix from each of the plurality of UEs; and scheduling at least one UE among the plurality of UEs for data transmission based on the CDI from the plurality of UEs, wherein the scheduling the at least one UE comprises determining a plurality of sets of UEs based on the plurality of UEs, determining a precoding vector for each UE in each set of UEs based on eigenvectors for all UEs in the sets of UEs, determining a metric for each set of UEs based on precoding vectors for all UEs in the sets of UEs, wherein the determining the metric for each set of UEs comprises determining a spectral efficiency for each UE in each set of UEs based on the precoding vectors for all UEs in the sets of UEs, and determining the metric for each set of UEs based on spectral efficiencies for all UEs in the sets of UEs, and selecting a set of UEs for scheduling based on the metric for each set of UEs. determining a plurality of sets of UEs based on the plurality of UEs, determining a precoding vector for each UE in each set of UEs based on eigenvectors for all UEs in the sets of UEs, determining a metric for each set of UEs based on precoding vectors for all UEs in the sets of UEs, wherein the determining the metric for each set of UEs comprises determining a spectral efficiency for each UE in each set of UEs based on the precoding vectors for all UEs in the sets of UEs, and determining the metric for each set of UEs based on spectral efficiencies for all UEs in the sets of UEs, and determining a spectral efficiency for each UE in each set of UEs based on the precoding vectors for all UEs in the sets of UEs, and determining the metric for each set of UEs based on spectral efficiencies for all UEs in the sets of UEs, and selecting a set of UEs for scheduling based on the metric for each set of UEs.
A supporting structure that is to be mounted on a wall surface and configured to support a display section, the supporting structure comprising: a support configured to support the display section from below in a vertical direction; an inclination adjusting mechanism provided at the support and configured to adjust an inclination of the display section with respect to the vertical direction; a contacting member configured to be in contact with a lower surface of the display section; and a biasing member provided at the support and biases the contacting member upward in the vertical direction. a support configured to support the display section from below in a vertical direction; an inclination adjusting mechanism provided at the support and configured to adjust an inclination of the display section with respect to the vertical direction; a contacting member configured to be in contact with a lower surface of the display section; and a biasing member provided at the support and biases the contacting member upward in the vertical direction.
A method for reducing hydrogen chloride concentration in a gas stream, the method comprising contacting the gas stream with an active material comprising: (a) a first metal, the first metal being copper; and (b) one or more second metals, the one or more second metals being selected from the group consisting of manganese, technetium, and rhenium; under a set of process conditions, wherein (a) the first metal is present in a metallic state at the process conditions; and (b) the one or more second metals are each present in a metal oxide and/or metal hydroxide state at the process conditions. (a) a first metal, the first metal being copper; and (b) one or more second metals, the one or more second metals being selected from the group consisting of manganese, technetium, and rhenium; (a) the first metal is present in a metallic state at the process conditions; and (b) the one or more second metals are each present in a metal oxide and/or metal hydroxide state at the process conditions.
A compound selected from the group consisting of: quercetin, isoquercetin, E64, CA074, CA074Me, apigenin, baicalein, and tannic acid or a combination thereof for use in a method for treating radiation-induced bystander effects (RIBE) in a subject caused by exposure to radiation.
An apparatus for performing an ocular laser surgical procedure based on an initial cutting pattern comprising a plurality of original photodisruption points, comprising: a laser configured to emit a beam; optical elements configured to focus the beam emitted by the laser at a desired position on an eye of a patient; and a controller configured to control the laser and the optical elements, characterised in that the controller is configured to use an enhanced cutting pattern comprising a plurality of enhanced photodisruption points selected to decrease potential adverse effects due to patient movement and having increased density over a fixed area as compared with the plurality of original photodisruption points; wherein each photodisruption point in the initial cutting pattern and the enhanced cutting pattern comprises a laser target point. a laser configured to emit a beam; optical elements configured to focus the beam emitted by the laser at a desired position on an eye of a patient; and a controller configured to control the laser and the optical elements, characterised in that the controller is configured to use an enhanced cutting pattern comprising a plurality of enhanced photodisruption points selected to decrease potential adverse effects due to patient movement and having increased density over a fixed area as compared with the plurality of original photodisruption points; wherein each photodisruption point in the initial cutting pattern and the enhanced cutting pattern comprises a laser target point.