mhurhangee/ep-ind-claims huggingface dataset:
A method of estimating a flow rate of a phase of a fluid having a plurality of components, the method comprising: polarizing nuclei of the fluid by applying a magnetic field over a plurality of non-identical polarization lengths, wherein a number of the polarization lengths is equal to or greater than a number of the components; selecting a flow velocity and measuring, for the selected flow velocity, a magnetization of the polarized nuclei for each of the plurality of polarization lengths; estimating a relative fraction of each of the plurality of components corresponding to the selected velocity based on the plurality of measured magnetizations; wherein measuring the magnetization of the polarized nuclei comprises pulsing a first coil with a tipping pulse, pulsing a second coil with a refocusing pulse, and measuring an echo resulting from the refocusing pulse with a third coil, wherein a time interval between the tipping pulse and the refocusing pulse used for measuring the echo is defined by the selected velocity and a distance between the first coil and the second coil. polarizing nuclei of the fluid by applying a magnetic field over a plurality of non-identical polarization lengths, wherein a number of the polarization lengths is equal to or greater than a number of the components; selecting a flow velocity and measuring, for the selected flow velocity, a magnetization of the polarized nuclei for each of the plurality of polarization lengths; estimating a relative fraction of each of the plurality of components corresponding to the selected velocity based on the plurality of measured magnetizations; wherein measuring the magnetization of the polarized nuclei comprises pulsing a first coil with a tipping pulse, pulsing a second coil with a refocusing pulse, and measuring an echo resulting from the refocusing pulse with a third coil, wherein a time interval between the tipping pulse and the refocusing pulse used for measuring the echo is defined by the selected velocity and a distance between the first coil and the second coil.
A method of tracking user terminals in a mobile communication network, the method comprising: at a tracking node, for each of a plurality of user terminals, determining a first tracking area in which the user terminal is located; characterized by, storing data comprising a number of user terminals located in each of a plurality of tracking areas; receiving a page response from one of the plurality of user terminals located in one of: the first tracking area and a further tracking area; and in the event that the user terminal remains located at the first tracking area, updating the data to include the number of page responses received at the tracking area after a first time interval, and in the event that the user terminal is located at the further tracking area, updating the data to include the number of page responses received at the further tracking area after the first time interval. at a tracking node, for each of a plurality of user terminals, determining a first tracking area in which the user terminal is located; characterized by, storing data comprising a number of user terminals located in each of a plurality of tracking areas; receiving a page response from one of the plurality of user terminals located in one of: the first tracking area and a further tracking area; and in the event that the user terminal remains located at the first tracking area, updating the data to include the number of page responses received at the tracking area after a first time interval, and in the event that the user terminal is located at the further tracking area, updating the data to include the number of page responses received at the further tracking area after the first time interval.
Method of two-factor authentication of a user with an application Service executing on an application server, in which the first authentication factor is a PIN authentication Code known solely to the user and to the Application Service, characterized in that the second authentication factor is the Mobile Communication Terminal of the user on which a trusted Application obtained from a trusted Third Party or certified by it will have been installed, the said trusted Application being able to generate, with the aid of the said PIN authentication Code and of a secret key (Ks) shared solely with the trusted Third Party, a one-time-pad authentication Code for each authentication of the user with the application Service, and characterized furthermore in that authentication of a user with an application Service comprises the following steps: - subsequent to the inputting of his PIN authentication Code by the user, a step of generating a one-time-pad authentication Code with the aid of the trusted Application installed on his Mobile Communication Terminal; - a step of communicating the one-time-pad authentication Code thus obtained to the application Service; - a step of transmission by the application Service of the one-time-pad authentication Code in a reduced form, obtained with the aid of the said PIN authentication Code, to the trusted Third Party; - a step of verifying the one-time-pad authentication Code in a reduced form by the trusted Third Party with the aid of the said secret key (Ks); - a step of notifying the result of the verification by the trusted Third Party to the application Service. - subsequent to the inputting of his PIN authentication Code by the user, a step of generating a one-time-pad authentication Code with the aid of the trusted Application installed on his Mobile Communication Terminal; - a step of communicating the one-time-pad authentication Code thus obtained to the application Service; - a step of transmission by the application Service of the one-time-pad authentication Code in a reduced form, obtained with the aid of the said PIN authentication Code, to the trusted Third Party; - a step of verifying the one-time-pad authentication Code in a reduced form by the trusted Third Party with the aid of the said secret key (Ks); - a step of notifying the result of the verification by the trusted Third Party to the application Service.
An absorbent article, comprising: a. a fluid permeable topsheet; b. a backsheet; and c. an absorbent element disposed between the topsheet and the backsheet, wherein the absorbent element comprises two or more layers; wherein an upper layer is positioned closer to the topsheet and a lower layer is positioned closer to the backsheet; wherein the upper layer is a heterogeneous mass layer comprising a longitudinal axis, a lateral axis, a vertical axis, one or more enrobeable elements, and discrete open-cell foam pieces; wherein said enrobeable elements are synthetic fibers and wherein one or more of said discrete open-cell foam pieces enrobe said enrobeable elements; and d. wherein the absorbent article comprises a caliper expansion, measured at 1 minute according to the dynamic caliper expansion test described herein, of at least 150%. a. a fluid permeable topsheet; b. a backsheet; and c. an absorbent element disposed between the topsheet and the backsheet, wherein the absorbent element comprises two or more layers; wherein an upper layer is positioned closer to the topsheet and a lower layer is positioned closer to the backsheet; wherein the upper layer is a heterogeneous mass layer comprising a longitudinal axis, a lateral axis, a vertical axis, one or more enrobeable elements, and discrete open-cell foam pieces; wherein said enrobeable elements are synthetic fibers and wherein one or more of said discrete open-cell foam pieces enrobe said enrobeable elements; and wherein an upper layer is positioned closer to the topsheet and a lower layer is positioned closer to the backsheet; wherein the upper layer is a heterogeneous mass layer comprising a longitudinal axis, a lateral axis, a vertical axis, one or more enrobeable elements, and discrete open-cell foam pieces; wherein said enrobeable elements are synthetic fibers and wherein one or more of said discrete open-cell foam pieces enrobe said enrobeable elements; and d. wherein the absorbent article comprises a caliper expansion, measured at 1 minute according to the dynamic caliper expansion test described herein, of at least 150%.
A lubricating composition for aircraft engine turbines, said composition comprising: (a) at least 90% by weight of one or more long-chain ester(s) selected from the groups consisting of products resulting from the reaction of linear or branched carboxylic acids having from 4 to 12 carbon atoms with one or more polyol(s), (b) from 1% to 5% by weight of one or more antioxidant(s). (c) from 1 % to 5% by weight of a combination of anti-wear agents, (d) from 0.01% to 0.3% of one or more anti-corrosion and/or yellow metal deactivating additive(s), the percentages by weight being expressed as related to the lubricating composition total weight, wherein (a) said anti-wear agents are selected from compounds of formula A wherein Ar1, Ar2 and Ar3 are independently selected from phenyl group and phenyl group substituted with at least one tert-butyl group, and (b) said combination comprises: (i) at least 90% in moles of compounds of formula A wherein at least one of the Ar1, Ar2 and Ar3 groups is substituted with at least one tert-butyl group; (ii) at least 30% in moles of compounds of formula A wherein at least two of the Ar1, Ar2 and Ar3 are each substituted with at least one tert-butyl group; the mole percentage being expressed as related to the total number of moles of compounds of formula A present in said combination of anti-wear agents. (a) at least 90% by weight of one or more long-chain ester(s) selected from the groups consisting of products resulting from the reaction of linear or branched carboxylic acids having from 4 to 12 carbon atoms with one or more polyol(s), (b) from 1% to 5% by weight of one or more antioxidant(s). (c) from 1 % to 5% by weight of a combination of anti-wear agents, (d) from 0.01% to 0.3% of one or more anti-corrosion and/or yellow metal deactivating additive(s), (a) said anti-wear agents are selected from compounds of formula A wherein Ar1, Ar2 and Ar3 are independently selected from phenyl group and phenyl group substituted with at least one tert-butyl group, and (b) said combination comprises: (i) at least 90% in moles of compounds of formula A wherein at least one of the Ar1, Ar2 and Ar3 groups is substituted with at least one tert-butyl group; (ii) at least 30% in moles of compounds of formula A wherein at least two of the Ar1, Ar2 and Ar3 are each substituted with at least one tert-butyl group; (i) at least 90% in moles of compounds of formula A wherein at least one of the Ar1, Ar2 and Ar3 groups is substituted with at least one tert-butyl group; (ii) at least 30% in moles of compounds of formula A wherein at least two of the Ar1, Ar2 and Ar3 are each substituted with at least one tert-butyl group;
A welding or additive manufacturing wire drive system, comprising: a first spindle with a first welding wire spool; a second spindle with a second welding wire spool; a first drive roll; a second drive roll, wherein one or both of the first drive roll and the second drive roll has a circumferential groove; a first and a second welding wire (E1, E2), wherein the first welding wire is wound on the first welding wire spool, and the second welding wire is wound on the second welding wire spool, the drive system being characterised in that: the first welding wire, from the first welding wire spool, is located between the first drive roll and the second drive roll in the circumferential groove; and the second welding wire, from the second welding wire spool, is located between the first drive roll and the second drive roll in the circumferential groove, and in that the first welding wire contacts the second welding wire between the first drive roll and the second drive roll, and the first welding wire further contacts a first sidewall portion of the circumferential groove, and the second welding wire further contacts a second sidewall portion of the circumferential groove, and both of the first welding wire and the second welding wire are radially offset from a central portion of the circumferential groove; and in that the circumferential groove has a trapezoidal shape. a first spindle with a first welding wire spool; a second spindle with a second welding wire spool; a first drive roll; a second drive roll, wherein one or both of the first drive roll and the second drive roll has a circumferential groove; a first and a second welding wire (E1, E2), wherein the first welding wire is wound on the first welding wire spool, and the second welding wire is wound on the second welding wire spool, the first welding wire, from the first welding wire spool, is located between the first drive roll and the second drive roll in the circumferential groove; and the second welding wire, from the second welding wire spool, is located between the first drive roll and the second drive roll in the circumferential groove, and in that the first welding wire contacts the second welding wire between the first drive roll and the second drive roll, and the first welding wire further contacts a first sidewall portion of the circumferential groove, and the second welding wire further contacts a second sidewall portion of the circumferential groove, and both of the first welding wire and the second welding wire are radially offset from a central portion of the circumferential groove; and in that the circumferential groove has a trapezoidal shape.
A computer implemented method of determining a numerical representation of a spectacle lens for manufacturing a physical spectacle lens, wherein a numerically represented working spectacle lens is optimized by means of an optimization process iteratively optimizing parameters of piecewise defined functions which involves ray tracing using a number of pencils of rays (27, 29) along different viewing directions of an eye and a merit function in order to obtain an optimized numerically represented working spectacle lens which constitutes the numerical representation of the spectacle lens to be determined, wherein the principal rays (35, 37) of the pencils of rays (27, 29) each pass different ray passing points (31, 33) forming points of a vertex surface (19, 119) and wherein the principal rays (35, 37) of the pencils of rays (27, 29) extend along viewing directions related to the respective ray passing point (31, 33), characterized in that the three-dimensional locations of the ray passing points (31, 33) are determined by surface points of a non-spherical apex surface (11, 111) representing the locations of the apex of the cornea when the eye rotates, and a fixed distance (vd) which is added to the apex surface (11, 111) at the respective surface points in a direction that corresponds to the viewing direction of the eye when the apex of the cornea is located at said surface point, where the viewing direction is represented by a defined azimuth angle and a defined polar angle with respect to the normal direction of the apex surface (11, 111) at the surface point of the apex surface (11, 111).
An electronic device comprising: a housing; a rectifier configured to rectify power provided through a first port and a second port of a power receiving circuit; and the power receiving circuit disposed within the housing and including a conductive pattern unit for receiving the power wirelessly, wherein the conductive pattern unit comprises: a main coil; a first sub-coil, wherein a first end of the first sub-coil is connected to a first end of the main coil and a second end of the first sub-coil is connected to the first port, and a second sub-coil, wherein a first end of the second sub-coil is connected to a second end of the main coil and a second end of the second sub-coil is connected to the second port, characterized in that a diameter of the first sub-coil and a diameter of the second sub-coil are smaller than a diameter of the main coil, and each of the first sub-coil and the second-sub-coil has a resonance frequency corresponding to a frequency of electromagnetic waves generated according to converting, by the rectifier, the power to direct current, DC, power. a housing; a rectifier configured to rectify power provided through a first port and a second port of a power receiving circuit; and the power receiving circuit disposed within the housing and including a conductive pattern unit for receiving the power wirelessly, wherein the conductive pattern unit comprises: a main coil; a first sub-coil, wherein a first end of the first sub-coil is connected to a first end of the main coil and a second end of the first sub-coil is connected to the first port, and a second sub-coil, wherein a first end of the second sub-coil is connected to a second end of the main coil and a second end of the second sub-coil is connected to the second port, characterized in that a diameter of the first sub-coil and a diameter of the second sub-coil are smaller than a diameter of the main coil, and each of the first sub-coil and the second-sub-coil has a resonance frequency corresponding to a frequency of electromagnetic waves generated according to converting, by the rectifier, the power to direct current, DC, power. a main coil; a first sub-coil, wherein a first end of the first sub-coil is connected to a first end of the main coil and a second end of the first sub-coil is connected to the first port, and a second sub-coil, wherein a first end of the second sub-coil is connected to a second end of the main coil and a second end of the second sub-coil is connected to the second port, characterized in that a diameter of the first sub-coil and a diameter of the second sub-coil are smaller than a diameter of the main coil, and each of the first sub-coil and the second-sub-coil has a resonance frequency corresponding to a frequency of electromagnetic waves generated according to converting, by the rectifier, the power to direct current, DC, power.
Medicine dispensing device (1, 101, 201) comprising a tray and a drop plate below the tray in a drop direction, wherein the tray is provided with a plurality of storage cavities for receiving one or more medicine items, wherein the drop plate (3, 103, 203) is slidable relative to the tray in a sliding direction perpendicular to the drop direction between a hold position and a drop position, wherein the drop plate (3, 103, 203) is provided with a plurality of drop openings which are out of line with the plurality of storage cavities in the drop direction when the drop plate (3, 103, 203) is in the hold position and which are aligned with the plurality of storage cavities in the drop direction when the drop plate (3, 103, 203) is in the drop position, wherein the medicine dispensing device (1, 101, 201) further comprises one or more retaining members (4, 104, 204) for retaining the drop plate (3, 103, 203) relative to the tray in the drop direction when the drop plate (3, 103, 203) is in a dispensing path extending from a first endpoint defined by one of the hold position and the drop position up to a second endpoint defined by the other one of the drop position and the hold position, wherein the drop plate (3, 103, 203) is slidable in a release direction into a release position outside of the dispensing path, wherein the one or more retaining members (4, 104, 204) are arranged for releasing the drop plate (3, 103, 203) in the drop direction from the tray in said release position.
A system (100A, 100B) comprising: a gas turbine engine comprising a low speed spool, a high speed spool, and a combustor; a low spool motor configured to augment rotational power of the low speed spool; a high spool motor configured to augment rotational power of the high speed spool; and a controller configured to cause fuel flow, the controller operable to: control the low spool motor to drive rotation of the low speed spool responsive to a thrust command while the controller does not command fuel flow to the combustor; and control the low spool motor to drive rotation of the low speed spool responsive to the thrust command during a starting operation of the gas turbine engine; wherein the controller is configured to control the high spool motor to accelerate the high speed spool during the starting operation of the gas turbine engine while the low spool motor controls thrust of the gas turbine engine on the low speed spool. a gas turbine engine comprising a low speed spool, a high speed spool, and a combustor; a low spool motor configured to augment rotational power of the low speed spool; a high spool motor configured to augment rotational power of the high speed spool; and a controller configured to cause fuel flow, the controller operable to: control the low spool motor to drive rotation of the low speed spool responsive to a thrust command while the controller does not command fuel flow to the combustor; and control the low spool motor to drive rotation of the low speed spool responsive to the thrust command during a starting operation of the gas turbine engine; wherein the controller is configured to control the high spool motor to accelerate the high speed spool during the starting operation of the gas turbine engine while the low spool motor controls thrust of the gas turbine engine on the low speed spool. control the low spool motor to drive rotation of the low speed spool responsive to a thrust command while the controller does not command fuel flow to the combustor; and control the low spool motor to drive rotation of the low speed spool responsive to the thrust command during a starting operation of the gas turbine engine; wherein the controller is configured to control the high spool motor to accelerate the high speed spool during the starting operation of the gas turbine engine while the low spool motor controls thrust of the gas turbine engine on the low speed spool.
Excitation device for the intense excitation of male genitals, preferably a penis, including a receiving unit, configured to enclose male genitals, as well as a holding element connected with said receiving unit, which holding element, by means of a drive, vibrating element, or similar, can be made to vibrate, CHARACTERIZED IN THAT the receiving unit is configured as an elastic, circumferentially closed a penis loop (6; 12, 18) having two loop ends that converge on the holding element and are fixed on the holding element, respectively, in that the holding element is configured for fastening to an oscillation tool, and in that the holding element is configured as a clamp comprising a lower fastening end with a through-opening for detachably fasting to the oscillation tool as well as an upper fastening end for fasting with the loop ends of the penis loop.