mhurhangee/ep-ind-claims huggingface dataset:
A method for selecting a facies model realization, comprising: a) selecting a grid-cell or window location for a facies model realization; b) selecting a most prominent facies for facies within the facies model realization at the grid-cell or window location; c) calculating a volume comprising the selected grid-cell or window location using a computer processor; d) calculating a facies net volume based on the most prominent facies selected and the volume; e) calculating a probability density function of the facies net volume; f) calculating a cumulative distribution function of the facies net volume using the probability density function; and g) selecting the facies model realization if the cumulative distribution function for the facies net volume meets a predetermined value. a) selecting a grid-cell or window location for a facies model realization; b) selecting a most prominent facies for facies within the facies model realization at the grid-cell or window location; c) calculating a volume comprising the selected grid-cell or window location using a computer processor; d) calculating a facies net volume based on the most prominent facies selected and the volume; e) calculating a probability density function of the facies net volume; f) calculating a cumulative distribution function of the facies net volume using the probability density function; and g) selecting the facies model realization if the cumulative distribution function for the facies net volume meets a predetermined value.
An agent, or a pharmaceutically acceptable salt or solvate thereof, for use in promoting CNS repair, wherein said agent is a heparin derivative which is: substantially 2-O desulphated and 2-N desulphated; substantially 6-O desulphated and 2-N desulphated; substantially 2-O and 6-O desulphated; or substantially 2-O, 6-O and 2-N desulphated; wherein a heparin derivative that is substantially 2-O desulphated has 75% to 100% of the 2-O atoms of the uronate moieties desulphated; and wherein a heparin derivative that is substantially 2-N desulphated has 75% to 100% of the 2-N atoms of the glucosamine moiety desulphated; and wherein a heparin derivative that is substantially 6-O desulphated has 75% to 100% of the 6-O atoms of the glucosamine moieties desulphated. substantially 2-O desulphated and 2-N desulphated; substantially 6-O desulphated and 2-N desulphated; substantially 2-O and 6-O desulphated; or substantially 2-O, 6-O and 2-N desulphated;
A carrier element arrangement, having - a plate-shaped carrier element, - a LED module with at least one LED, a housing having a light output element for outputting the light emitted by the at least one LED and having at least one latching element (3, 3') for mounting the LED module on the plate-shaped carrier element, wherein the latching element (3, 3') is arranged on the same side of the LED module as the light output element, wherein the LED module is arranged on the carrier element secured by the at least one latching element (3, 3'), characterized in that the plate-shaped carrier element has a least one blind hole, into which the at least one latching element (3, 3') for mounting the LED module is arranged engagingly in a latching manner. - a plate-shaped carrier element, - a LED module with at least one LED, a housing having a light output element for outputting the light emitted by the at least one LED and having at least one latching element (3, 3') for mounting the LED module on the plate-shaped carrier element, wherein the latching element (3, 3') is arranged on the same side of the LED module as the light output element,
A copolymer of ethylene with at least one alpha-olefin comonomer, wherein the copolymer: - has a density from 0.860 g/cm 3 to 0.888 g/cm 3, measured in accordance with standard DIN EN ISO 1183-1:2004, method A, - has a polydispersity M w /M n lower than 3.5, - comprises at least one first ethylene polymer and at least one second ethylene polymer having different comonomer contents such that the copolymer shows at least two CRYSTAF peak temperatures, namely a first CRYSTAF peak temperature lower than 30°C and a second CRYSTAF peak temperature at least 25°C higher than the first peak temperature, measured by dissolving 15 mg of sample for 60 min at 160° C in 30 ml, then stabilizing the solution for 90 min at 95° C and with a crystallization rate of 0.1 °C/min., - has a melting enthalpy of lower than 36 J/g, measured according to the standard method ISO 11357-3, - has a melt flow rate MFR, measured according to ISO 1133 at a temperature of 190°C and under a weight of 2.16 kg, of from 12 to 20 g/10 min. - has a density from 0.860 g/cm 3 to 0.888 g/cm 3, measured in accordance with standard DIN EN ISO 1183-1:2004, method A, - has a polydispersity M w /M n lower than 3.5, - comprises at least one first ethylene polymer and at least one second ethylene polymer having different comonomer contents such that the copolymer shows at least two CRYSTAF peak temperatures, namely a first CRYSTAF peak temperature lower than 30°C and a second CRYSTAF peak temperature at least 25°C higher than the first peak temperature, measured by dissolving 15 mg of sample for 60 min at 160° C in 30 ml, then stabilizing the solution for 90 min at 95° C and with a crystallization rate of 0.1 °C/min., - has a melting enthalpy of lower than 36 J/g, measured according to the standard method ISO 11357-3, - has a melt flow rate MFR, measured according to ISO 1133 at a temperature of 190°C and under a weight of 2.16 kg, of from 12 to 20 g/10 min.
A device for transmitting negative pressure to a wound area, said device comprising: a wound cover comprising a flexible drape with an aperture there through and an outward surface opposite an inward surface, the inward surface being coated with an adhesive and being intended to face a patient's body in use; a suction head comprising a substantially planar flange portion defining an inward surface intended to face a patient's body in use and an opposite outward substantially smooth surface, and a tube connector in liquid tight-joinder with said drape, said tube connector having an opening adapted to connect to a tube in which negative pressure may be produced, said opening being in fluid communication with the inward surface of said drape through the aperture; wherein the adhesive inward surface of the flexible drape is bonded to the smooth surface of the flange; characterised in that it further comprises a foam pad appropriately shaped to cover the flange portion and to be positioned in use over a wound and adjacent the inward surface of the flange portion of the suction head, and in that the inward adhesive surface of the flexible drape is shaped to enable the drape to simultaneously adhere to the foam pad, the outward surface of the flange portion and to a patient's body around the foam pad, and in that the device further comprises a backing sheet having a release coated surface and adhered to a central strip of the drape inward surface and covering the suction head, and lateral protective strips (104, 105) adhered to lateral strips of the drape inward surface to which the backing sheet is not adhered. a wound cover comprising a flexible drape with an aperture there through and an outward surface opposite an inward surface, the inward surface being coated with an adhesive and being intended to face a patient's body in use; a suction head comprising a substantially planar flange portion defining an inward surface intended to face a patient's body in use and an opposite outward substantially smooth surface, and a tube connector in liquid tight-joinder with said drape, said tube connector having an opening adapted to connect to a tube in which negative pressure may be produced, said opening being in fluid communication with the inward surface of said drape through the aperture; wherein the adhesive inward surface of the flexible drape is bonded to the smooth surface of the flange; characterised in that it further comprises a foam pad appropriately shaped to cover the flange portion and to be positioned in use over a wound and adjacent the inward surface of the flange portion of the suction head, and in that the inward adhesive surface of the flexible drape is shaped to enable the drape to simultaneously adhere to the foam pad, the outward surface of the flange portion and to a patient's body around the foam pad, and in that the device further comprises a backing sheet having a release coated surface and adhered to a central strip of the drape inward surface and covering the suction head, and lateral protective strips (104, 105) adhered to lateral strips of the drape inward surface to which the backing sheet is not adhered.
A gas turbine engine comprising: a turbine section configured to drive a fan through a fan shaft, the fan including a plurality of fan blades rotatable about an axis of rotation of the gas turbine engine; a fan nacelle including a first electrical machine component, wherein the fan is located within the fan nacelle; and a plurality of fan inlet guide vanes including a second electrical machine component, the plurality of fan inlet guide vanes are rotatable about the axis independent of rotation of the fan blades. a turbine section configured to drive a fan through a fan shaft, the fan including a plurality of fan blades rotatable about an axis of rotation of the gas turbine engine; a fan nacelle including a first electrical machine component, wherein the fan is located within the fan nacelle; and a plurality of fan inlet guide vanes including a second electrical machine component, the plurality of fan inlet guide vanes are rotatable about the axis independent of rotation of the fan blades.
A method for calibrating an antenna positioned on an aircraft, said antenna being protected by a radome and operating in a band suitable for providing Internet communication to a user via a satellite, having the following steps: Defining a number n of angle positions for the aircraft located in a calibration region, where n is greater than one, Measuring the value of the orientation of the antenna for each position n, [ Aa ( n), Ea ( n)], where Aa ( n), Ea ( n) correspond to the azimuth and the elevation of the antenna for a position characterised in that it further has the steps of: Defining the theoretical orientation of the antenna [ A a( n) ∗, Ea ( n) ∗] taking into account the pitch value, the roll value and the heading value for the aircraft for each position n, and the satellite orientation values [ Ar ( n), Er ( n)]: Aa n ∗, Ea n ∗ = F H n, P n, R n, δ H, δ P, δ R, δ E, Ar n, Er n, where F is a chosen geometric function, where Ar ( n), Er ( n) are the coordinates of said satellite Defining a criterion C: C = ∑ Aa n − Aa n ∗ 2 + Ea n − Ea n ∗ 2 Minimising the value of the criterion C in order to determine the bias values (δH, δP, δR, δE) from the values [Aa*(n), Ea*(n)] and using said bias values to minimise the differences between the measured angles and the theoretical angles. Defining a number n of angle positions for the aircraft located in a calibration region, where n is greater than one, Measuring the value of the orientation of the antenna for each position n, [ Aa ( n), Ea ( n)], where Aa ( n), Ea ( n) correspond to the azimuth and the elevation of the antenna for a position characterised in that it further has the steps of: Defining the theoretical orientation of the antenna [ A a( n) ∗, Ea ( n) ∗] taking into account the pitch value, the roll value and the heading value for the aircraft for each position n, and the satellite orientation values [ Ar ( n), Er ( n)]: Aa n ∗, Ea n ∗ = F H n, P n, R n, δ H, δ P, δ R, δ E, Ar n, Er n, where F is a chosen geometric function, where Ar ( n), Er ( n) are the coordinates of said satellite Defining a criterion C: C = ∑ Aa n − Aa n ∗ 2 + Ea n − Ea n ∗ 2 Minimising the value of the criterion C in order to determine the bias values (δH, δP, δR, δE) from the values [Aa*(n), Ea*(n)] and using said bias values to minimise the differences between the measured angles and the theoretical angles. Defining the theoretical orientation of the antenna [ A a( n) ∗, Ea ( n) ∗] taking into account the pitch value, the roll value and the heading value for the aircraft for each position n, and the satellite orientation values [ Ar ( n), Er ( n)]: Aa n ∗, Ea n ∗ = F H n, P n, R n, δ H, δ P, δ R, δ E, Ar n, Er n, where F is a chosen geometric function, where Ar ( n), Er ( n) are the coordinates of said satellite Defining a criterion C: C = ∑ Aa n − Aa n ∗ 2 + Ea n − Ea n ∗ 2 Minimising the value of the criterion C in order to determine the bias values (δH, δP, δR, δE) from the values [Aa*(n), Ea*(n)] and using said bias values to minimise the differences between the measured angles and the theoretical angles.
Method for supplying encoded configuration data to a programmable, integrated logic circuit, wherein un-encoded configuration data are supplied to the logic circuit, and wherein the encoded configuration data are loaded into the logic circuit, decoded by means of an algorithm and a key for the activation of the algorithm, and stored logic-circuit-internally, characterised in that the un-encoded configuration data comprise the algorithm and the key is supplied to the logic circuit logic-circuit-externally and separately from the encoded configuration data and from the un-encoded configuration data.
Lighting device (100, 200, 300) comprising: a housing with a base (106, 206, 306) and a transparent cover (101, 201, 301), an electronic circuit mounted on the base (106, 206, 306) and being connectable with at least one light emitting and/or one light receiving element which is arranged for emitting and/or receiving light through the transparent cover (101, 201, 301), two antennas, wherein a radiating part (102, 104, 202, 302) of each antenna is connected to the electronic circuit, wherein the two antennas are configured to transmit and/or receive different signals, characterized in that said radiating part (102, 104, 202, 302) of each antenna follows the contour of an inner surface of the transparent cover (101, 201, 301). a housing with a base (106, 206, 306) and a transparent cover (101, 201, 301), an electronic circuit mounted on the base (106, 206, 306) and being connectable with at least one light emitting and/or one light receiving element which is arranged for emitting and/or receiving light through the transparent cover (101, 201, 301), two antennas, wherein a radiating part (102, 104, 202, 302) of each antenna is connected to the electronic circuit, wherein the two antennas are configured to transmit and/or receive different signals, characterized in that said radiating part (102, 104, 202, 302) of each antenna follows the contour of an inner surface of the transparent cover (101, 201, 301).
A preparation for use in the prevention and/or treatment of depression associated with a vascular disorder, comprising oral administration of a preparation which contains at least the following fractions: a) one or more long chain polyunsaturated fatty acids selected from the group of eicosapentaenoic acid, docosahexaenoic acid, dihomogammalinolenic acid (DHGLA) and arachidonic acid, wherein the daily dosage of the total of EPA, DHA, DHGLA and AA is at least 120 mg; b) at least two different phospholipids selected from the group consisting of phosphatidylserine, phosphatidylinositol, phosphatidylcholine and phosphatidylethanolamine; c) one or more compounds which are a factor in methionine metabolism, which compounds are selected from the group consisting of folate, vitamin B12, vitamin B6, magnesium and zinc, containing at least folate, in an amount equivalent of at least 200 μg folic acid per daily dose. a) one or more long chain polyunsaturated fatty acids selected from the group of eicosapentaenoic acid, docosahexaenoic acid, dihomogammalinolenic acid (DHGLA) and arachidonic acid, wherein the daily dosage of the total of EPA, DHA, DHGLA and AA is at least 120 mg; b) at least two different phospholipids selected from the group consisting of phosphatidylserine, phosphatidylinositol, phosphatidylcholine and phosphatidylethanolamine; c) one or more compounds which are a factor in methionine metabolism, which compounds are selected from the group consisting of folate, vitamin B12, vitamin B6, magnesium and zinc, containing at least folate, in an amount equivalent of at least 200 μg folic acid per daily dose.
Battery cell module, in particular for use in a motor vehicle and/or in a stationary energy store, comprising a lower shell with at least one receptacle for connection to a battery cell and at least one cylindrical battery cell with a longitudinal axis, a first longitudinal end and a second longitudinal end, wherein the first longitudinal end is fixed in a receptacle of the lower shell, and wherein the battery cell module is free of an upper shell, characterized in that the battery cell comprises at least one cooling element, which is in the form of a cooling fin extending along the longitudinal axis.
A computer-implemented seismic migration method that comprises: determining visibility values of a target event at source and receiver positions of traces in an existing seismic survey; and re-migrating traces having visibility values above a threshold to image the target event, wherein said determining the visibility values of a target event includes: finding, for each of multiple simulated shots, a reflection wavefield from said target event in a seismic model; calculating, for each of multiple receiver positions, a contribution signal, Csr(t), from each reflection wavefield; and converting each contribution signal into a source-receiver visibility value, V(s,r), wherein said converting includes determining an integrated square of the contribution signal, and wherein the threshold is selected to capture a predetermined fraction of the area under the visibility function associated with the visibility values. determining visibility values of a target event at source and receiver positions of traces in an existing seismic survey; and re-migrating traces having visibility values above a threshold to image the target event, wherein said determining the visibility values of a target event includes: finding, for each of multiple simulated shots, a reflection wavefield from said target event in a seismic model; calculating, for each of multiple receiver positions, a contribution signal, Csr(t), from each reflection wavefield; and converting each contribution signal into a source-receiver visibility value, V(s,r), wherein said converting includes determining an integrated square of the contribution signal, and wherein the threshold is selected to capture a predetermined fraction of the area under the visibility function associated with the visibility values. finding, for each of multiple simulated shots, a reflection wavefield from said target event in a seismic model; calculating, for each of multiple receiver positions, a contribution signal, Csr(t), from each reflection wavefield; and converting each contribution signal into a source-receiver visibility value, V(s,r), wherein said converting includes determining an integrated square of the contribution signal, and wherein the threshold is selected to capture a predetermined fraction of the area under the visibility function associated with the visibility values.
A method for initiating cell measurement, the method comprising: pre-setting an initiating condition for initiating measurement of a Closed Subscriber Group, CSG, cell and/or Hybrid cell, wherein the initiating condition is that a pre-set Reference Signal Received Power, RSRP, is higher than s-Measure and lower than s-Measure1, or a User Equipment, UE, is close to its own footprint area or fingerprint area; and receiving a servingRSRP; initiating the measurement of all measurement tasks by the UE when a servingRSRP is lower than the s-Measure, wherein a measurement object comprises all cells on a designated carrier frequency in the measurement tasks; initiating the measurement of the CSG cell and/or Hybrid cell in all the measurement tasks by the UE when the servingRSRP is lower than the s-Measure1 and higher than the s-Measure; not initiating the measurement of all the measurement tasks by the UE when the servingRSRP is higher than the s-Measure1, or determining whether a UE is close to its own footprint area or fingerprint area; initiating the measurement of the CSG cell and/or Hybrid cell in all the measurement tasks by the UE when the UE is close to its own footprint area or fingerprint area, wherein all the measurement tasks are related to CSG cells, Hybrid cells and macro cells. pre-setting an initiating condition for initiating measurement of a Closed Subscriber Group, CSG, cell and/or Hybrid cell, wherein the initiating condition is that a pre-set Reference Signal Received Power, RSRP, is higher than s-Measure and lower than s-Measure1, or a User Equipment, UE, is close to its own footprint area or fingerprint area; and receiving a servingRSRP; initiating the measurement of all measurement tasks by the UE when a servingRSRP is lower than the s-Measure, wherein a measurement object comprises all cells on a designated carrier frequency in the measurement tasks; initiating the measurement of the CSG cell and/or Hybrid cell in all the measurement tasks by the UE when the servingRSRP is lower than the s-Measure1 and higher than the s-Measure; not initiating the measurement of all the measurement tasks by the UE when the servingRSRP is higher than the s-Measure1, or determining whether a UE is close to its own footprint area or fingerprint area; initiating the measurement of the CSG cell and/or Hybrid cell in all the measurement tasks by the UE when the UE is close to its own footprint area or fingerprint area, wherein all the measurement tasks are related to CSG cells, Hybrid cells and macro cells.
An apparatus for the separation of dry matter and liquid from a medium, comprising - a plurality of rollers, - a separation chamber for receiving the medium and defined, in cross section, by the rollers, and - at least one screw conveyor (320, 321, 322, 323) for feeding medium into the separation chamber, wherein the screw conveyor (320, 321, 322, 323) extends along the entire length of the separation chamber. - a plurality of rollers, - a separation chamber for receiving the medium and defined, in cross section, by the rollers, and - at least one screw conveyor (320, 321, 322, 323) for feeding medium into the separation chamber,