mhurhangee/ep-ind-claims huggingface dataset:
Active radar system comprising: - at least two transmit antennas (61, 62) that each transmits radiation to an object as a transmit signal (T61, T62), said transmit signal comprising a series of frequency modulated pulses, - at least one receive antenna (63, 64) that receives radiation from said object as a receive signal (R61, R62), - a controller that controls said at least two transmit antennas (61, 62) such that the transmissions of the transmit signals (T61, T62) of the various transmit antennas are subsequently initiated with time offsets (T o), which time offset (T o) between two subsequently initiated transmissions of transmit signals (T61, T62) is controlled to be larger than the time delay (Δt) between transmission of a first transmit signal of said two transmit signals and reception of radiation of said first transmit signal by said at least one receive antenna and to be smaller than the time duration (T b) of a complete frequency modulated pulse of said first transmit signal, and - a signal analyser that analyses said receive signal (R61, R62), characterized in that said controller controls at least one transmit antenna (61, 62) to transmit a transmit signal and wherein said signal analyser analyses the receive signal to determine the time delay (Δt) between transmission of the transmit signal and reception of radiation of said transmit signal and adapts the time offset (T o) for controlling the transmission of two subsequently initiated transmissions of transmit signals if distances between the antennas and the object change. - at least two transmit antennas (61, 62) that each transmits radiation to an object as a transmit signal (T61, T62), said transmit signal comprising a series of frequency modulated pulses, - at least one receive antenna (63, 64) that receives radiation from said object as a receive signal (R61, R62), - a controller that controls said at least two transmit antennas (61, 62) such that the transmissions of the transmit signals (T61, T62) of the various transmit antennas are subsequently initiated with time offsets (T o), which time offset (T o) between two subsequently initiated transmissions of transmit signals (T61, T62) is controlled to be larger than the time delay (Δt) between transmission of a first transmit signal of said two transmit signals and reception of radiation of said first transmit signal by said at least one receive antenna and to be smaller than the time duration (T b) of a complete frequency modulated pulse of said first transmit signal, and - a signal analyser that analyses said receive signal (R61, R62),
An electric field writing magnetic storage device (1; 1A-1L) comprising: a rotatable disk comprising a substrate and a magnetic recording film provided on a surface of the substrate, the magnetic recording film comprising at least one ferromagnetic and ferroelectric layer; a writing device writing information into the magnetic recording film by means of an electric field, the writing device comprising a writing electrode, the writing electrode generating a dielectric flux between the writing electrode and the substrate by having electric potential to the substrate; and a writing circuit choosing one electric potential among a plurality of electric potential levels and applying the chosen one electric potential to the writing electrode in every operation of writing information, wherein the dielectric flux generated according to the electric potential applied to the writing electrode by the writing circuit magnetizes the ferromagnetic and ferroelectric layer in a specific direction. a rotatable disk comprising a substrate and a magnetic recording film provided on a surface of the substrate, the magnetic recording film comprising at least one ferromagnetic and ferroelectric layer; a writing device writing information into the magnetic recording film by means of an electric field, the writing device comprising a writing electrode, the writing electrode generating a dielectric flux between the writing electrode and the substrate by having electric potential to the substrate; and a writing circuit choosing one electric potential among a plurality of electric potential levels and applying the chosen one electric potential to the writing electrode in every operation of writing information, wherein the dielectric flux generated according to the electric potential applied to the writing electrode by the writing circuit magnetizes the ferromagnetic and ferroelectric layer in a specific direction.
A system for dispensing cryogenic liquid comprising; a. a container defining an interior; b. a partition dividing the interior into a primary chamber and a reserve chamber, each of said primary and reserve chambers configured to contain a cryogenic liquid with a headspace above the cryogenic liquid, where the cryogenic liquid within the primary chamber is separated from the cryogenic liquid in the reserve chamber, said partition also configured to provide a headspace communication passage so that the headspace of the primary chamber is in fluid communication with the headspace of the reserve chamber; c. a primary pressure building circuit having an inlet selectively in liquid communication with a bottom portion of the primary chamber and an outlet in fluid communication with the headspaces of the primary and reserve chambers of the tank; d. a reserve pressure building circuit having an inlet selectively in liquid communication with a bottom portion of the reserve chamber and an outlet in fluid communication with the headspaces of the primary and reserve chambers of the tank; e. an equalizing circuit selectively in liquid communication with the primary and reserve chambers; and f. a dispensing line selectively in liquid communication with the bottom of the primary chamber. a. a container defining an interior; b. a partition dividing the interior into a primary chamber and a reserve chamber, each of said primary and reserve chambers configured to contain a cryogenic liquid with a headspace above the cryogenic liquid, where the cryogenic liquid within the primary chamber is separated from the cryogenic liquid in the reserve chamber, said partition also configured to provide a headspace communication passage so that the headspace of the primary chamber is in fluid communication with the headspace of the reserve chamber; c. a primary pressure building circuit having an inlet selectively in liquid communication with a bottom portion of the primary chamber and an outlet in fluid communication with the headspaces of the primary and reserve chambers of the tank; d. a reserve pressure building circuit having an inlet selectively in liquid communication with a bottom portion of the reserve chamber and an outlet in fluid communication with the headspaces of the primary and reserve chambers of the tank; e. an equalizing circuit selectively in liquid communication with the primary and reserve chambers; and f. a dispensing line selectively in liquid communication with the bottom of the primary chamber.
A compound or a pharmaceutical composition comprising the compound for use in a method of treating neurodegenerative damage caused by traumatic brain injury, wherein the compound is represented by the following structural formula: or a pharmaceutically acceptable salt thereof.
A method for determining a next hop, comprising: receiving (101, 401), by a control device, first routing information sent by a first forwarding device, wherein the first routing information comprises an identifier of the first forwarding device; determining (102, 402), by the control device, a first routing path according to the identifier of the first forwarding device, an identifier of a second forwarding device and a routing path group, wherein the first routing path includes the identifier of the first forwarding device and the identifier of the second forwarding device, and the first routing path is in the routing path group; and determining (103, 403), by the control device, a next hop in second routing information for the second forwarding device according to the first routing path, wherein the second forwarding device is a receiver of the second routing information advertised by the control device. receiving (101, 401), by a control device, first routing information sent by a first forwarding device, wherein the first routing information comprises an identifier of the first forwarding device; determining (102, 402), by the control device, a first routing path according to the identifier of the first forwarding device, an identifier of a second forwarding device and a routing path group, wherein the first routing path includes the identifier of the first forwarding device and the identifier of the second forwarding device, and the first routing path is in the routing path group; and determining (103, 403), by the control device, a next hop in second routing information for the second forwarding device according to the first routing path, wherein the second forwarding device is a receiver of the second routing information advertised by the control device.
A device for detecting a reversed configuration of withdrawal and return devices (1, 14, 111, 112, 211, 212, 702, 703, 802, 803) coupling an extracorporeal blood flow circuit to a cardiovascular system of a subject, the device comprising a signal processor 29 configured to: - receive a primary measurement signal obtained by a primary pressure sensor (4a, 4b, 4c) in the extracorporeal blood flow circuit; - process the primary measurement signal for extraction of primary pressure data originating from a subject pulse generator in the cardiovascular system, the primary pressure data comprising at least a part of a subject pulse from the subject pulse generator; - calculate a parameter value from the primary pressure data, the parameter value being indicative of a characteristic of the at least part of the subject pulse in the primary pressure data; and - determine the reversed configuration based at least partly on the parameter value. - receive a primary measurement signal obtained by a primary pressure sensor (4a, 4b, 4c) in the extracorporeal blood flow circuit; - process the primary measurement signal for extraction of primary pressure data originating from a subject pulse generator in the cardiovascular system, the primary pressure data comprising at least a part of a subject pulse from the subject pulse generator; - calculate a parameter value from the primary pressure data, the parameter value being indicative of a characteristic of the at least part of the subject pulse in the primary pressure data; and - determine the reversed configuration based at least partly on the parameter value.
A method for processing value documents, comprising the steps of: - detecting an action of an operator of a value-document processing apparatus by means of a camera device and generating image data of the detected action; - processing the generated image data by means of an image processing device; - extracting at least one gesture (500; 510) from the processed image data by the image processing device; - allocating the at least one gesture (500; 510) to an input information item for the value-document processing apparatus; - providing the input information item in the value-document processing apparatus and - processing the input information item by the value-document processing apparatus, wherein a data input information item is allocated to the at least one gesture as the input information item and, on the basis of the data input information item, a data input into the value-document processing apparatus is effected, wherein a specific area (330; 340) on a working surface in a working region of the operator is allocated to the data input information item, and the data input information item is allocated to a gesture which corresponds to a body position and/or a movement of the operator by means of which the operator selects the specific area on the working surface, characterized in that the operator selects the specific area on the working surface in the working region of the operator by depositing a value document in the specific area (330; 340). - detecting an action of an operator of a value-document processing apparatus by means of a camera device and generating image data of the detected action; - processing the generated image data by means of an image processing device; - extracting at least one gesture (500; 510) from the processed image data by the image processing device; - allocating the at least one gesture (500; 510) to an input information item for the value-document processing apparatus; - providing the input information item in the value-document processing apparatus and - processing the input information item by the value-document processing apparatus,
A method of fitting a vehicle window in a frame which includes a frame base which after fitting is in opposite relationship to a main surface of the vehicle window and a frame flank which is in opposite relationship to an edge of the vehicle window, comprising the steps: a) placing the vehicle window on the frame while maintaining a first gap between the main surface and the frame base, b) introducing an adhesive into the first gap, and c) feeding the vehicle window in the direction of the frame base. a) placing the vehicle window on the frame while maintaining a first gap between the main surface and the frame base, b) introducing an adhesive into the first gap, and c) feeding the vehicle window in the direction of the frame base.
A method of generating a multicolour image of an unstained biological specimen, the specimen comprising at least two chemically different substances of interest, wherein the method comprises - generating (601, 602) for each of the substances of interest a substance image (24, 26) indicating for every region of the image an amount of the substance; wherein generating the substance image comprises exposing the specimen to ultraviolet light of a selected frequency thereby acquiring an image by using an imaging/detection modality that allows to measure quantities of substances present in an unstained specimen via absorbance variation; measuring for various regions of the specimen the intensity of transmitted ultraviolet light thereby estimating a quantity of at least one of the substances; and performing the steps of exposing and of measuring for different frequencies, thus generating for each frequency an ultraviolet image; and deriving from the ultraviolet images the substance images (26, 28); - generating the multicolour image on the basis of the substance images by creating an image that is coloured as if the specimen had been stained with a predefined stain chemical by using the estimated quantity. - generating (601, 602) for each of the substances of interest a substance image (24, 26) indicating for every region of the image an amount of the substance; wherein generating the substance image comprises exposing the specimen to ultraviolet light of a selected frequency thereby acquiring an image by using an imaging/detection modality that allows to measure quantities of substances present in an unstained specimen via absorbance variation; measuring for various regions of the specimen the intensity of transmitted ultraviolet light thereby estimating a quantity of at least one of the substances; and performing the steps of exposing and of measuring for different frequencies, thus generating for each frequency an ultraviolet image; and deriving from the ultraviolet images the substance images (26, 28); exposing the specimen to ultraviolet light of a selected frequency thereby acquiring an image by using an imaging/detection modality that allows to measure quantities of substances present in an unstained specimen via absorbance variation; measuring for various regions of the specimen the intensity of transmitted ultraviolet light thereby estimating a quantity of at least one of the substances; and performing the steps of exposing and of measuring for different frequencies, thus generating for each frequency an ultraviolet image; and deriving from the ultraviolet images the substance images (26, 28); - generating the multicolour image on the basis of the substance images by creating an image that is coloured as if the specimen had been stained with a predefined stain chemical by using the estimated quantity.
A magnesia carbon brick, the magnesia carbon brick being obtained by adding an organic binder to a refractory raw material mixture followed by kneading, molding, and heat-treating at 150 to 400°C, wherein in the refractory raw material mixture, a pitch and/or a carbon black is included with a total amount of 0.1% or more by mass and 2.0% or less by mass, aluminum and/or aluminum alloy is included with a total amount of 0.1% or more by mass and 1.0% or less by mass, a magnesia having a particle diameter of less than 0.075 mm is included with an amount of 3.0% or more by mass and 10.0% or less by mass, and a magnesia having a particle diameter of 0.075 mm or more and less than 5 mm is included with an amount of 87.0% or more by mass and 96.0% or less by mass, but graphite is not included therein; and a mass ratio of a magnesia having a particle diameter of 1 mm or more and less than 5 mm to a magnesia having a particle diameter of 0.075 mm or more and less than 1 mm is 1.66 or more and 2.34 or less; and an apparent porosity thereof when subjected to a heat-treatment under a reductive atmosphere at 1400°C for 3 hours is 8.0% or less. in the refractory raw material mixture, a pitch and/or a carbon black is included with a total amount of 0.1% or more by mass and 2.0% or less by mass, aluminum and/or aluminum alloy is included with a total amount of 0.1% or more by mass and 1.0% or less by mass, a magnesia having a particle diameter of less than 0.075 mm is included with an amount of 3.0% or more by mass and 10.0% or less by mass, and a magnesia having a particle diameter of 0.075 mm or more and less than 5 mm is included with an amount of 87.0% or more by mass and 96.0% or less by mass, but graphite is not included therein; and a mass ratio of a magnesia having a particle diameter of 1 mm or more and less than 5 mm to a magnesia having a particle diameter of 0.075 mm or more and less than 1 mm is 1.66 or more and 2.34 or less; and an apparent porosity thereof when subjected to a heat-treatment under a reductive atmosphere at 1400°C for 3 hours is 8.0% or less.
Perfected curving machine comprising: - a support bench configured to simultaneously support one or more bars, and having an oblong development in relation to the length of the bars, - at least one bending unit (15a, 15b) controllably mobile along said support bench in order to bend said bars, and - clamping means (15a, 15b; 16) configured to constrain the position of said bars on said support bench, characterized in that the bending units (15a, 15b) have two contrast rolls (20a, 20b) with adjustable interaxes and between which the bar passes, and is gripped, and in that in cooperation with the contrast rolls (20a, 20b), the bending unit (15a, 15b) comprises a curving roll, wherein the curving roll is associated to guide means and to a positioning device, configured to move the curving roll, with respect to the contrast rolls (20a, 20b), on the guide means, said curving roll being suitable to determine a predefined curvature of said bar around one of said contrast rolls (20a, 20b) while said bending unit (15a, 15b) is moved along said support bench. - a support bench configured to simultaneously support one or more bars, and having an oblong development in relation to the length of the bars, - at least one bending unit (15a, 15b) controllably mobile along said support bench in order to bend said bars, and - clamping means (15a, 15b; 16) configured to constrain the position of said bars on said support bench, characterized in that the bending units (15a, 15b) have two contrast rolls (20a, 20b) with adjustable interaxes and between which the bar passes, and is gripped, and in that in cooperation with the contrast rolls (20a, 20b), the bending unit (15a, 15b) comprises a curving roll, wherein the curving roll is associated to guide means and to a positioning device, configured to move the curving roll, with respect to the contrast rolls (20a, 20b), on the guide means, said curving roll being suitable to determine a predefined curvature of said bar around one of said contrast rolls (20a, 20b) while said bending unit (15a, 15b) is moved along said support bench.
A vertical axis wind turbine with controllable output power, comprising a wind turbine base and an integrated shaftless annular three dimensional framework in rigid connection with an annular floater to support blades, wherein the blades are installed on the three dimensional framework, and angles of attack of the blades are controlled by a controllable device via a computer; wherein the wind turbine base is provided with an annular groove with water; the annular floater in rigid connection with the three dimensional framework to support the blades is a bottom structure of a rotator of the wind turbine, and the shape of the annular floater is in movable fit with an inner cavity of the annular groove; the angles of attack and lift direction of the blades installed on the wind turbine can be automatically controlled by the controllable device via the computer as needed according to the momentary wind force on the blades; the blades of the wind turbine are of a double-sided lift type; the lift-type blades are of airfoil profile like those of an airplane wing, and front edges thereof are normally in the windward direction, and rear edges are in the downwind direction.
A cleat member for use with an article of footwear, the cleat member having side wall surfaces extending upward from a ground-engaging surface, the cleat member comprising: an encapsulation layer formed from a first material; a core element formed from a second material, said core element having upwardly extending side surfaces, said first material being distinct from said second material, wherein said side surfaces of said core element are at least partially encapsulated by said encapsulation layer; and an encapsulation layer through hole (32a, 32b) extending from a first side wall surface of the cleat member completely through said encapsulation layer in a thickness direction of the cleat member, the thickness direction extending perpendicular to a longitudinal axis of the core element, said encapsulation layer through hole visible when said cleat member is joined to an article of footwear. an encapsulation layer formed from a first material; a core element formed from a second material, said core element having upwardly extending side surfaces, said first material being distinct from said second material, wherein said side surfaces of said core element are at least partially encapsulated by said encapsulation layer; and an encapsulation layer through hole (32a, 32b) extending from a first side wall surface of the cleat member completely through said encapsulation layer in a thickness direction of the cleat member, the thickness direction extending perpendicular to a longitudinal axis of the core element, said encapsulation layer through hole visible when said cleat member is joined to an article of footwear.