mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for a training of a process for generating an image of an object from measurement data, wherein the measurement data were obtained by an imaging modality using ionizing radiation, wherein the measurement data were modified by scatter radiation, wherein the method comprises the steps of: a) providing at least two individual sets of measured data, wherein each of the sets of the measured data is provided as a matrix having a plurality of matrix elements, wherein each of the matrix elements corresponds to at least one individual detector element designated for detecting ionizing radiation, wherein a signal measured by the individual detector element in an energy bin is assigned as a value for each matrix element, wherein the individual sets of the measured data differ with respect to each other by their corresponding energy bin; b) using the at least two individual sets of measured data and a template image as an input to a procedure for determining a correction image for a correction of a modification of the measured data by the scatter radiation, whereby the process is trained by adjusting a preliminary image obtained by using the at least two individual sets of measured data in the procedure to the template image, wherein the procedure comprises taking into account a neighborhood of each matrix element; and c) repeating steps a) and b) until a deviation between the preliminary image obtained by the process and the template image is below a threshold, whereby the procedure for determining the correction image for the correction of the modification of the measured data by the scatter radiation is obtained and applicable in the process for generating an image of an object from measurement data. a) providing at least two individual sets of measured data, wherein each of the sets of the measured data is provided as a matrix having a plurality of matrix elements, wherein each of the matrix elements corresponds to at least one individual detector element designated for detecting ionizing radiation, wherein a signal measured by the individual detector element in an energy bin is assigned as a value for each matrix element, wherein the individual sets of the measured data differ with respect to each other by their corresponding energy bin; b) using the at least two individual sets of measured data and a template image as an input to a procedure for determining a correction image for a correction of a modification of the measured data by the scatter radiation, whereby the process is trained by adjusting a preliminary image obtained by using the at least two individual sets of measured data in the procedure to the template image, wherein the procedure comprises taking into account a neighborhood of each matrix element; and c) repeating steps a) and b) until a deviation between the preliminary image obtained by the process and the template image is below a threshold, whereby the procedure for determining the correction image for the correction of the modification of the measured data by the scatter radiation is obtained and applicable in the process for generating an image of an object from measurement data.
Modular housing outlet system, comprising a housing with an outlet opening (1.1), a printed circuit card which is arranged in the housing and also a housing outlet port, wherein the housing outlet port has electrical contacts, wherein the electrical contacts are held in the housing outlet port in a captive manner, wherein the printed circuit card has a large number of bores which are in the form of press-in zones (3.1), wherein the printed circuit card is arranged within the housing in front of the outlet opening (1.1), wherein the press-in zones (3.1) of the printed circuit card are accessible through the outlet opening (1.1) in the housing, the housing outlet port has a housing connection side (4.1) and has a cable outlet side (4.2), wherein the electrical contacts pass through the housing outlet port from the housing connection side (4.1) to the cable outlet side (4.2), the housing connection side (4.1) of the housing outlet port is designed such that it corresponds to the outlet opening (1.1) in the housing in a form-fitting manner and can be locked in the outlet opening (1.1) in the housing, the electrical contacts form press-in contacts (5.1) on the housing connection side (4.1) of the housing outlet port, and the press-in contacts (5.1) of the electrical contacts are provided for pressing into the press-in zones (3.1), characterized in that press-in contacts (5.1) make contact with some of the press-in zones (3.1), with other press-in zones (3.1) being free.
An electrode holder for a glass melting furnace comprising: an outer wall; an inner wall defining a channel for receiving an electrode; a passage for receiving a flow of a coolant positioned between the outer wall and the inner wall; and a nose member joining the inner wall and the outer wall at a first end of the electrode holder, wherein the electrode holder is characterized in that it further comprises a refractory barrier layer deposited on an outer surface of the nose member, wherein the refractory barrier layer extends along a portion of the inner wall. an outer wall; an inner wall defining a channel for receiving an electrode; a passage for receiving a flow of a coolant positioned between the outer wall and the inner wall; and a nose member joining the inner wall and the outer wall at a first end of the electrode holder, wherein the electrode holder is characterized in that it further comprises a refractory barrier layer deposited on an outer surface of the nose member, wherein the refractory barrier layer extends along a portion of the inner wall.
Solvent borne coating composition wherein the composition has a volatile organic content below 300 g/l, as determined in accordance with ASTM D2369, the composition comprising an acrylated alkyd having vinylic building blocks characterized in that said alkyd has an oil length of 45 - 65 %; a weight average molecular weight (Mw) below 15,000; and a weight ratio of non-vinylic: vinylic groups between 1: 1 and 4: 1.
An aerodynamic structure for a wing or rudder arrangement of an aircraft, comprising - a support structure; and - an outer skin; wherein the support structure comprises an adaptive surface support structure in the longitudinal direction, which extends in the longitudinal direction from a root area to an outer end area and is formed by a support surface, which exhibits an adjustable periodic profiling that runs in a transverse direction, in which first and second flange areas are alternatingly formed, and joined together by web areas running in the direction of a profile height, wherein alternatingly aligned open profile segments running in the longitudinal direction are formed; wherein, in the area of the sides of the open profile segments, the support structure comprises several connecting segments running in the transverse direction, which join together two adjacent first or second flange areas; wherein at least a portion of the connecting segments are designed as adjustable-length connecting segments, so that the distance between the adjacent first or second flange areas can be adjusted and thereby the width of the open profile segments can be adjusted; wherein the outer skin is attached to the support surface; and wherein an outer contour of the aerodynamic structure can be changed at least in the transverse direction by adjusting the distance between the adjacent first or second flange areas and thereby the width of the open profile segments. - a support structure; and - an outer skin;
A device adapted to assess the detection capability of an X-ray system which is adapted to screen cargo pallets and/or shipping containers, wherein the X-ray system has a medium, 1 to 1.3 m by 1 to 1.3 m, or large, greater than 1.3 m by 1.3 m, tunnel size, said device having a width of 500 mm to 1250 mm and a height of 500 mm to 1250 mm, or said device having a height of 2 m to 4.5 m and a width of 2 m to 3.2 m, and comprising: • a support capable of holding at least one test module; • at least one test module mounted on the support; and • a stand which holds the support at a predetermined angle to the horizontal, said stand comprising a rotatable holder for holding the support so as to enable the predetermined angle to be varied; • wherein the stand or the support comprises an insertion region configured for insertion of forklift forks or tines; wherein said test module, or at least one of said test modules, is configured to be used in a test of the detection capability of said X-ray system. • a support capable of holding at least one test module; • at least one test module mounted on the support; and • a stand which holds the support at a predetermined angle to the horizontal, said stand comprising a rotatable holder for holding the support so as to enable the predetermined angle to be varied; • wherein the stand or the support comprises an insertion region configured for insertion of forklift forks or tines;
A method of operating an MRI apparatus comprising a magnet, which method comprises the steps of - exciting the body coil of the MRI apparatus to emit a radio-frequency signal (f BC); - detecting a reflected radio-frequency signal (f BC '), that is reflected by the body coil; - determining the centre frequency (f c) of a resonance curve of the body coil from the reflected radio-frequency signal (f BC ') by measuring the reflection coefficients of the body coil as a function of frequency; - identifying a magnet target frequency (f T) on the basis of the determined centre frequency (f c); and - ramping the magnet to the magnet target frequency (f T). - exciting the body coil of the MRI apparatus to emit a radio-frequency signal (f BC); - detecting a reflected radio-frequency signal (f BC '), that is reflected by the body coil; - determining the centre frequency (f c) of a resonance curve of the body coil from the reflected radio-frequency signal (f BC ') by measuring the reflection coefficients of the body coil as a function of frequency; - identifying a magnet target frequency (f T) on the basis of the determined centre frequency (f c); and - ramping the magnet to the magnet target frequency (f T).
System for operating an inverter-powered electrical induction machine, the motor current being detected and a stator current space vector being determined therefrom, the stator current space vector being determined from at least one detected voltage value, in particular a DC-link voltage value, in particular and where applicable from a pulse-width modulation signal, in particular a pulse-width modulation portion, emitted by the inverter, the stator current space vector and the stator voltage space vector being supplied to an observer, which determines therefrom both a reference angle and an actual speed value, which is supplied to a determination means, which, taking account of the reference angle, determines a voltage space vector, which is transformed into a different coordinate system by a transformation member, in particular into a rotor-flux-oriented coordinate system, and said transformed voltage space vector is then provided to the inverter as a manipulated variable, a torque value also being specified to the determination means, characterised in that with respect to the supplied pair of values, i.e. the torque value and the actual speed value, the determination means in each case determines an output-side pair of values, i.e. a voltage magnitude value and an electrical frequency value, from a characteristic map, in particular from a characteristic map stored in a memory, the electrical frequency value being fed to an integrating member, the output value of which is supplied, together with the voltage magnitude value, to a further transformation member, which determines a voltage space vector, which is transformed into the different coordinate system by the transformation member, in particular into the rotor-flux-oriented coordinate system, and said transformed voltage space vector is then provided to the inverter as a manipulated variable, the characteristic map being determined by selecting the output-side pair of values associated with the input-side pair of values, i.e. the torque value and actual speed value, such that minimal power loss occurs during stationary operation, in order to determine the characteristic map, the output-side pair of values being selected such that the power loss is minimal, subject to the side-constraint that the magnitude of the voltage and the magnitude of the current either remain below or are equal to respective maximum permitted values, the torque equalling the torque value and the speed equalling the actual speed value.
An analytical method for detecting residual aldehydes releasable from a syringe, wherein said syringe is a syringe -needle assembly, wherein the needle is coupled to the cone of the syringe by means of an adhesive or glue containing residual aldehydes, the method comprising the following steps: i) preparation of the sample to be analysed by isolating the cone of the syringe comprising the needle portion inserted in it and the glue; ii) derivatization treatment of the sample of step i) with a compound of formula Ar-NH-NH 2, wherein Ar is a phenyl substituted with one or more electron-attractant groups; iii) analysis of the solution resulting from step ii) by reverse-phase HPLC coupled to UV detector, wherein step i) of preparing the sample comprises detaching the cone from the cylindrical body of the syringe and removing the protruding needle portion, and wherein the syringe portion thus obtained, constituted by the cone, the needle portion inside the cone and the glue therein, further undergoes a treatment of crushing said syringe portion to give said sample. i) preparation of the sample to be analysed by isolating the cone of the syringe comprising the needle portion inserted in it and the glue; ii) derivatization treatment of the sample of step i) with a compound of formula Ar-NH-NH 2, wherein Ar is a phenyl substituted with one or more electron-attractant groups; iii) analysis of the solution resulting from step ii) by reverse-phase HPLC coupled to UV detector,
Polymer comprising one or more diene units and bearing along the main polymer chain one or more pendent groups of formula below: in which: - PAr denotes a polyaromatic group comprising at least two fused aromatic hydrocarbon rings, each of said fused aromatic rings being optionally substituted by one or more carbon-based chains, which are identical or different, independent of one another, aliphatic or aromatic, linear, branched or cyclic, and optionally substituted or interrupted by one or more heteroatoms; - Sp represents an atom or a group of atoms; - D denotes a group of attachment to the main polymer chain. - PAr denotes a polyaromatic group comprising at least two fused aromatic hydrocarbon rings, each of said fused aromatic rings being optionally substituted by one or more carbon-based chains, which are identical or different, independent of one another, aliphatic or aromatic, linear, branched or cyclic, and optionally substituted or interrupted by one or more heteroatoms; - Sp represents an atom or a group of atoms; - D denotes a group of attachment to the main polymer chain.
Dimmer system for controlling the power consumption of a load that can be connected, in particular an LED lamp, wherein the dimmer system has at least two parallel-connected galvanically isolated dimming channels (DK_A, DK_B, DK_X), wherein each dimming channel (DK_A, DK_B, DK_X) comprises a device (TS1 - TS3) for monitoring the temperature of its switch elements, characterised in that each dimming channel (DK_A, DK_B, DK_X) comprises a control unit (SE1 - SE3) for shifting its dimming edge according to the temperature of its switch elements, in order to distribute the power dissipation of the connected load substantially equally to the dimming channels (DK_A, DK_B, DK_X), wherein the respective dimming edge of the respective dimming channel (DK_A, DK_B, DK_X), for synchronisation of the dimming channels, is shifted forward or backward in time by the control unit of the respective dimming channel (DK_A, DK_B, DK_X) depending on the temperature of the respective switch elements.
A method for manufacturing a concentrate enriched in iron mineral content from an ore, which contains an iron mineral and silicate, by a reverse flotation, which method comprises the step of (c) adding a compound of formula I wherein R 1 is C 9 -C 22 alkyl or alkenyl, which is linear or branched, R 2 is H, C 1 -C 4 alkyl, which is linear or branched, R 3 is -X-NH 2, H or C 1 -C 4 alkyl, which is linear or branched, and X is C 2 -C 4 alkylene, which is linear or branched, or a salt of a protonated compound of formula I and an anion, to a prepared aqueous pulp of the ore and optionally one or more flotation auxiliaries to obtain an aqueous mixture. wherein R 1 is C 9 -C 22 alkyl or alkenyl, which is linear or branched, R 2 is H, C 1 -C 4 alkyl, which is linear or branched, R 3 is -X-NH 2, H or C 1 -C 4 alkyl, which is linear or branched, and X is C 2 -C 4 alkylene, which is linear or branched, or a salt of a protonated compound of formula I and an anion, to a prepared aqueous pulp of the ore and optionally one or more flotation auxiliaries to obtain an aqueous mixture.
A device for wirelessly transmitting information by modulating a wirelessly transmitted electromagnetic signal, said device comprising: at least one retro-reflector operable to reflect said electromagnetic signal back towards a source of said electromagnetic signal; and a modulator (20, 10) arranged in a path of said electromagnetic signal and operable to modulate said electromagnetic signal; said modulator comprising at least two electromagnetic modulators (12, 14) each operable to modulate a property of said electromagnetic signal in dependence upon a signal applied to said electromagnetic modulator, each of said electromagnetic modulators being operable to generate a different predetermined type of modulation such that modulation due to each electromagnetic modulator can be identified in said modulated signal; wherein said modulator comprises an input for receiving a signal comprising said information, a serial to parallel signal convertor for converting said signal into at least two parallel signals, said at least two parallel signals being applied to different ones of said at least two electromagnetic modulators (12, 14). at least one retro-reflector operable to reflect said electromagnetic signal back towards a source of said electromagnetic signal; and a modulator (20, 10) arranged in a path of said electromagnetic signal and operable to modulate said electromagnetic signal; said modulator comprising at least two electromagnetic modulators (12, 14) each operable to modulate a property of said electromagnetic signal in dependence upon a signal applied to said electromagnetic modulator, each of said electromagnetic modulators being operable to generate a different predetermined type of modulation such that modulation due to each electromagnetic modulator can be identified in said modulated signal; wherein said modulator comprises an input for receiving a signal comprising said information, a serial to parallel signal convertor for converting said signal into at least two parallel signals, said at least two parallel signals being applied to different ones of said at least two electromagnetic modulators (12, 14).
An antigenic composition comprising a plurality of antigenic components derived from antigens of Streptococcus equi subsp. equi or subsp. zooepidemicus, the antigenic components comprising: (i) a first fusion polypeptide comprising the amino acid sequence as shown in SEQ ID NO: 24 starting from amino acid 12; (ii) a second fusion polypeptide comprising the amino acid sequence as shown in SEQ ID NO: 22 starting from amino acid 12; and (iii) at least part of a protein designated IdeE comprising the amino acid sequence as shown in SEQ ID NO: 26 starting from amino acid 12, wherein said at least part of said protein comprises at least one antigenic epitope. (i) a first fusion polypeptide comprising the amino acid sequence as shown in SEQ ID NO: 24 starting from amino acid 12; (ii) a second fusion polypeptide comprising the amino acid sequence as shown in SEQ ID NO: 22 starting from amino acid 12; and (iii) at least part of a protein designated IdeE comprising the amino acid sequence as shown in SEQ ID NO: 26 starting from amino acid 12,
Battery unit for a drive mechanism for a bicycle, comprising 1.1. at least one battery, 1.2. a housing for receiving the at least one battery with 1.2.1. at least one receptacle element for receiving at least one supporting element for mouting the battery unit in or on a bicycle frame and 1.3. at least one decoupling element interacting with the receptacle element for at least partially mechanically decoupling the supporting element incorporated in the receptacle element from the housing, 1.4. wherein the at least one decoupling element comprises a slide-in shaft, which is stuck through the at least one receptacle element, and 1.5. wherein the at least one decoupling element comprises at least one elastic and/or flexible component, by means of which the slide-in shaft is held in the receptacle element, 1.6. wherein the slide-in shaft has a play in the axial direction relative to the housing of the battery unit. 1.1. at least one battery, 1.2. a housing for receiving the at least one battery with 1.2.1. at least one receptacle element for receiving at least one supporting element for mouting the battery unit in or on a bicycle frame and 1.3. at least one decoupling element interacting with the receptacle element for at least partially mechanically decoupling the supporting element incorporated in the receptacle element from the housing, 1.4. wherein the at least one decoupling element comprises a slide-in shaft, which is stuck through the at least one receptacle element, and 1.5. wherein the at least one decoupling element comprises at least one elastic and/or flexible component, by means of which the slide-in shaft is held in the receptacle element, 1.6. wherein the slide-in shaft has a play in the axial direction relative to the housing of the battery unit.