mhurhangee/ep-ind-claims huggingface dataset:
A filter medium comprising a substrate and a fine fiber layer on top of the substrate, wherein the substrate comprises a first layer comprising first fibers having a first average diameter and a first maximum fiber length; a second layer comprising second fibers having a second average diameter and a second maximum fiber length; and a third layer comprising third fibers having a third average diameter and a third maximum fiber length; wherein the boundary area between the first and the second layer forms a first blended area comprising first and second fibers; and the boundary area between the second and the third layer forms a second blended area comprising second and third fibers; and wherein the first and the third average diameters are each larger than the second average diameter.
An electrical distribution center comprising: a bracket; a mounting plate is secured to the bracket and includes an aperture having a perimeter; and an electrical connector is disposed within the aperture and includes locating structure that is captured between the perimeter and the bracket to align and to retain the electrical connector relative to the bracket, wherein the mounting plate includes a plurality of the apertures, and a corresponding plurality of the electrical connectors are each arranged in a respective one of the apertures, and the bracket includes a first fastening element, and comprising a second fastening element that threadingly engages the first fastening element in an assembled condition, at least one of the first and second fastening elements (100, 102) passes through the mounting plate outside of the electrical connectors. a bracket; a mounting plate is secured to the bracket and includes an aperture having a perimeter; and an electrical connector is disposed within the aperture and includes locating structure that is captured between the perimeter and the bracket to align and to retain the electrical connector relative to the bracket, wherein the mounting plate includes a plurality of the apertures, and a corresponding plurality of the electrical connectors are each arranged in a respective one of the apertures, and the bracket includes a first fastening element, and comprising a second fastening element that threadingly engages the first fastening element in an assembled condition, at least one of the first and second fastening elements (100, 102) passes through the mounting plate outside of the electrical connectors.
An automotive light comprising: a substantially basin-shaped, rear body structured to be fixed on the vehicle body; a front lenticular half-shell which is arranged to close the mouth of the rear body and is provided with at least one transparent or semi-transparent portion; and at least one lighting assembly which emits light on command and is located within the rear body so as to backlight the transparent or semi-transparent portion of the front lenticular half-shell; said at least one lighting assembly in turn comprising an OLED-type planar light source which is capable of emitting light from its own front face and is located within the rear body with the front face turned towards the inner surface of the front lenticular half-shell so as to direct the light produced towards the front lenticular half-shell; said automotive light being characterized in that the OLED-type planar light source comprises: at least one plate-like OLED diode which is capable of emitting light in a distributed manner from its own front face and from its own rear face, and has at least one transparent sector or through hole, present in a limited portion of said plate-like OLED diode, defining a transverse light passageway structured for allowing the light to pass freely through the thickness of the same plate-like OLED diode; and a rear refracting member, which is arranged facing the rear face of the OLED diode and is able to re-direct the light (r b) coming out from the rear face of the OLED diode towards said transverse light passageway in a direction such that said light (r b) can pass though the OLED diode and then come out from the front face of the OLED diode.
A handheld sensing apparatus comprising: • a housing; • a sensor module removably mounted in the housing and including at least two sensors that provide a distinct response to a particular test sample; • at least one identifier carried on the sensor module for identifying the at least two sensors on the sensor module; • a sample chamber (710a, 710b) defined by one or both of the housing and the sensor module, the sample chamber (710a, 710b) incorporating an inlet port and an outlet port, wherein the at least two sensors are located within or adjacent to the sample chamber (710a, 710b); • a monitor mounted in the housing configured to read the at least one identifier; and • a microprocessor mounted in the housing and configured to analyse a particular response from the at least two sensors, wherein the microprocessor identifies or quantifies analytes within the test sample based on the particular response. • a housing; • a sensor module removably mounted in the housing and including at least two sensors that provide a distinct response to a particular test sample; • at least one identifier carried on the sensor module for identifying the at least two sensors on the sensor module; • a sample chamber (710a, 710b) defined by one or both of the housing and the sensor module, the sample chamber (710a, 710b) incorporating an inlet port and an outlet port, wherein the at least two sensors are located within or adjacent to the sample chamber (710a, 710b); • a monitor mounted in the housing configured to read the at least one identifier; and • a microprocessor mounted in the housing and configured to analyse a particular response from the at least two sensors, wherein the microprocessor identifies or quantifies analytes within the test sample based on the particular response.
A luminaire comprising a light source, a sensor and a controller, wherein the controller is configured to control the light source depending on detection of an object by the sensor, characterized in that the light source comprises a wide angle lens, a first LED module for primarily directing light towards the wide angle lens, a narrow angle lens, and a second LED module for primarily directing light towards the narrow angle lens, wherein the narrow angle lens is arranged to direct light emitted by the second LED module in a downward direction relative to the direction in which light emitted by the first LED module is directed by the wide angle lens, wherein the controller is configured to control the first and second LED modules (10, 11) differently depending on whether the sensor detects movement of the object towards, or away from, the light source, wherein, when the sensor detects that the object is moving away from the luminaire, at least the first LED module is activated by the controller, and wherein, when the sensor detects that the object is moving towards the luminaire, the first LED module is deactivated by the controller and the second LED module is activated by the controller.
A method for controlling a zero sequence voltage of a voltage source converter, comprising: when an alternating current, AC, system ground fault occurs, detecting a zero sequence voltage at an AC side or at a direct current, DC, side of a converter; if the detected zero sequence voltage is greater than a set value V 0ref, increasing a DC side voltage of the converter to a set value U dc0, wherein a value to which the DC side voltage is increased meets a relational expression: U dc0 >2U m, wherein U m is a non-faulty phase voltage peak, thereby generating an appropriate reference wave at the AC side of the converter to match an AC voltage, and accordingly controlling overmodulation of a reference wave at a faulty station to suppress fluctuation of a DC voltage. when an alternating current, AC, system ground fault occurs, detecting a zero sequence voltage at an AC side or at a direct current, DC, side of a converter; if the detected zero sequence voltage is greater than a set value V 0ref, increasing a DC side voltage of the converter to a set value U dc0, wherein a value to which the DC side voltage is increased meets a relational expression: U dc0 >2U m, wherein U m is a non-faulty phase voltage peak, thereby generating an appropriate reference wave at the AC side of the converter to match an AC voltage, and accordingly controlling overmodulation of a reference wave at a faulty station to suppress fluctuation of a DC voltage.
An immunogenic composition comprising capsular saccharides from: a) at least serogroups A and C of N.meningitidis, wherein the ratio (w/w) of MenA saccharide:MenC saccharide is greater than 1; and/or b) serogroup Y and one or both of serogroups C and W135, wherein the ratio (w/w) of MenY saccharide:MenW135 saccharide is greater than 1 and/or the ratio (w/w) of MenY saccharide:MenC saccharide is less than 1; and wherein the capsular saccharides are conjugated to carrier protein(s).
Portable hairstyling appliance comprising: - an elongated handle by which said appliance is intended to be manually held to be used, said handle extending longitudinally between a first and a second end (2A, 2B) in an average longitudinal extension direction (X-X'), - a blowing head which extends said handle from said first end and which is provided with an air outlet through which an airflow is intended to be blown outwards in an average blowing direction (Y-Y'), - a motor-fan module to generate said airflow, - and an electric heating element to heat said airflow, said electric heating element being fixedly embedded within the blowing head, upstream from said air outlet relative to the airflow, said motor-fan module extending the handle from said second end and including a fan wheel rotatably mounted about an axis of rotation (Z-Z') which, on the one hand, falls into a first plane substantially perpendicular to said average blowing direction (Y-Y'), and on the other hand, falls also into a second plane substantially perpendicular to said average longitudinal extension direction (X-X'), said motor-fan module including an electric motor connected to said fan wheel to rotate it, said electric motor being an external rotor motor. - an elongated handle by which said appliance is intended to be manually held to be used, said handle extending longitudinally between a first and a second end (2A, 2B) in an average longitudinal extension direction (X-X'), - a blowing head which extends said handle from said first end and which is provided with an air outlet through which an airflow is intended to be blown outwards in an average blowing direction (Y-Y'), - a motor-fan module to generate said airflow, - and an electric heating element to heat said airflow,
A method for preparing a complex comprising a radioisotope of gallium for use in radiotherapy or in a medical imaging procedure, said method comprising adding a gallium radioisotope solution obtained directly from a gallium radionuclide generator to a composition comprising a pharmaceutically acceptable buffer and optionally also a pharmaceutically acceptable basic reagent, in amounts sufficient to increase the pH to a level in the range of 3 to 8, wherein the composition further comprises a chelator that is able to chelate radioactive gallium within said pH range and at moderate temperature, said chelator being optionally linked to a biological targeting agent, wherein said chelator is selected from desferrioxamine-B, bis(2-hydroxybenzyl)ethylenediaminediacetic acid (HBED), 1,4,7-triazacyclononane macrocycle substituted with phosphonic groups at the amines (NOTP), or a compound of formula or a salt thereof; wherein one of X and Y is C=0 and the other is NR; wherein each m and p are independently selected from 0 to 6; wherein R 1 is a chelating group capable of chelating a radionuclide and is selected from: wherein R, R 2, R 3 and R 4 are independently hydrogen or an optionally substituted C 1-7 alkyl group; and where Z is hydrogen or a group of formula -B'-H, -B'-A, or a group -B'-A*-T, where T is a targeting group capable of binding to a target of interest in a subject; A is a reactive group allowing coupling to the group T, A* is a reacted reactive group A; B' is a linker group for linking the chelating group to a reactive group A, and is represented by the formula: wherein each Q is independently selected from a group consisting of -NR 5 -, -C NR 5 -, -C O, -NR 5 C NR 5 -, -NR 5 C NR 5 - and -0-, each R 5 is independently hydrogen or an optionally substituted C 1-7 alkyl group, each q and s are independently selected from 0 to 6 and each r is independently selected from 1 to 6. wherein R, R 2, R 3 and R 4 are independently hydrogen or an optionally substituted C 1-7 alkyl group; and where Z is hydrogen or a group of formula -B'-H, -B'-A, or a group -B'-A*-T, where T is a targeting group capable of binding to a target of interest in a subject; A is a reactive group allowing coupling to the group T, A* is a reacted reactive group A; B' is a linker group for linking the chelating group to a reactive group A, and is represented by the formula: wherein each Q is independently selected from a group consisting of -NR 5 -, -C NR 5 -, -C O, -NR 5 C NR 5 -, -NR 5 C NR 5 - and -0-, each R 5 is independently hydrogen or an optionally substituted C 1-7 alkyl group, each q and s are independently selected from 0 to 6 and each r is independently selected from 1 to 6.
A diagnostic device comprising: a substrate comprising a plurality of reaction channels defined by a barrier material and form a predetermined pattern, wherein at least some of the reaction channels comprise an amount of a hydrophobic material disposed on the substrate; wherein the hydrophobic material is selected to be converted from the hydrophobic material to a hydrophilic material upon contact with a conversion component within or derived from a sample introduced to the reaction channels, wherein each of the plurality of reaction channels comprises a dye at an end of the respective channels, wherein the dye is selected to provide a visible or readable indication that a sample introduced to the device has traveled along a length of the reaction channel to the dye, and wherein the conversion of the hydrophobic material into the hydrophilic material is stimulated via an oxidation-triggered reaction with hydrogen peroxide, wherein the conversion from hydrophobic material to hydrophilic material means that upon reaction with the conversion component, the hydrophobic material becomes more hydrophilic than prior to contact with the conversion component, wherein the substrate comprises a surface within the reaction channels modified with an alkyl ketene dimer as follows: a substrate comprising a plurality of reaction channels defined by a barrier material and form a predetermined pattern, wherein at least some of the reaction channels comprise an amount of a hydrophobic material disposed on the substrate; wherein the hydrophobic material is selected to be converted from the hydrophobic material to a hydrophilic material upon contact with a conversion component within or derived from a sample introduced to the reaction channels, wherein each of the plurality of reaction channels comprises a dye at an end of the respective channels, wherein the dye is selected to provide a visible or readable indication that a sample introduced to the device has traveled along a length of the reaction channel to the dye, and wherein the conversion of the hydrophobic material into the hydrophilic material is stimulated via an oxidation-triggered reaction with hydrogen peroxide, wherein the conversion from hydrophobic material to hydrophilic material means that upon reaction with the conversion component, the hydrophobic material becomes more hydrophilic than prior to contact with the conversion component, wherein the substrate comprises a surface within the reaction channels modified with an alkyl ketene dimer as follows:
A rotor blade assembly for a gas turbine engine, comprising: a blade portion formed of laid-up ceramic matrix composite material having a leading edge and a trailing edge, a pressure side extending between said leading edge and said trailing edge, a suction side opposite said pressure side, said suction side extending between said leading edge and said trailing edge; a root formed of said laid-up CMC material having a dovetail at a radially inward end; a shank formed of said laid-up CMC material and integrally with said root, said shank extending from said root and a platform extending circumferentially from said shank; a plurality of continuous fiber damper retaining plies of said CMC material, said plurality of continuous fiber damper retaining plies extending from said dovetail to said platform, said plurality of continuous fiber damper retaining plies being split apart to define an upper at least one ply and a lower at least one ply near said leading edge and said trailing edge; said upper at least one ply extending from said leading edge to said trailing edge and from said dovetail to said platform; said lower at least one ply disposed at said leading edge and said trailing edge opposite said upper at least one ply, said lower at least one ply forming a damper retaining tab extending from said dovetail and defining a damper pocket near said leading edge and said trailing edge; and, a sheet metal damper disposed in said damper pocket. a blade portion formed of laid-up ceramic matrix composite material having a leading edge and a trailing edge, a pressure side extending between said leading edge and said trailing edge, a suction side opposite said pressure side, said suction side extending between said leading edge and said trailing edge; a root formed of said laid-up CMC material having a dovetail at a radially inward end; a shank formed of said laid-up CMC material and integrally with said root, said shank extending from said root and a platform extending circumferentially from said shank; a plurality of continuous fiber damper retaining plies of said CMC material, said plurality of continuous fiber damper retaining plies extending from said dovetail to said platform, said plurality of continuous fiber damper retaining plies being split apart to define an upper at least one ply and a lower at least one ply near said leading edge and said trailing edge; said upper at least one ply extending from said leading edge to said trailing edge and from said dovetail to said platform; said lower at least one ply disposed at said leading edge and said trailing edge opposite said upper at least one ply, said lower at least one ply forming a damper retaining tab extending from said dovetail and defining a damper pocket near said leading edge and said trailing edge; and, a sheet metal damper disposed in said damper pocket.
An audio reproduction device capable of providing audio output through at least one output member, the audio reproduction device including: a left output member for transmission of audio, the left output member being able to fit into a user's first ear; and a transducer for converting input audio signals into audio output, the device characterised by the transducer being located within the left output member; an acoustic tube coupled to the left output member for transmission of audio from the transducer, a first end of the acoustic tube being coupled to the left output member; and a right output member for transmission of audio, the right output member being able to fit into the user's second ear, a second end of the acoustic tube being coupled to the right output member, wherein the audio output is transmitted from the transducer through the acoustic tube to the right output member, and wherein the first end of the acoustic tube is removable from the left output member and the second end of the acoustic tube is removable from the right output member, such that the right output member is removable from the audio reproduction device so that the user is provided with an option of receiving transmission of audio without the acoustic tube and right output member dangling from the audio reproduction device. a left output member for transmission of audio, the left output member being able to fit into a user's first ear; and a transducer for converting input audio signals into audio output, the device characterised by the transducer being located within the left output member; an acoustic tube coupled to the left output member for transmission of audio from the transducer, a first end of the acoustic tube being coupled to the left output member; and a right output member for transmission of audio, the right output member being able to fit into the user's second ear, a second end of the acoustic tube being coupled to the right output member, wherein the audio output is transmitted from the transducer through the acoustic tube to the right output member, and wherein the first end of the acoustic tube is removable from the left output member and the second end of the acoustic tube is removable from the right output member, such that the right output member is removable from the audio reproduction device so that the user is provided with an option of receiving transmission of audio without the acoustic tube and right output member dangling from the audio reproduction device.
A method for producing a lactulose-containing product, comprising the following steps: a) providing a lactose-containing substrate in the form of a lactose-containing permeate, wherein the lactose-containing permeate is a permeate of milk, whey or of a milk or whey derivative, b) treating the lactose-containing substrate with a β-galactosidase and/or a β-glucosidase in the presence of fructose, thereby generating a lactulose-containing substrate, wherein the fructose is admixed with the lactose-containing substrate before carrying out step b), c) inactivating the β-galactosidase and/or the β-glucosidase by heating, and d) generating a lactulose-containing retentate by nanofiltration and diafiltration of the lactulose-containing substrate, wherein the diafiltration is carried out after the nanofiltration, the nanofiltration is carried out at a transmembrane pressure difference of 10 bar to 50 bar, and the transmembrane pressure difference is reduced before diafiltration. a) providing a lactose-containing substrate in the form of a lactose-containing permeate, wherein the lactose-containing permeate is a permeate of milk, whey or of a milk or whey derivative, b) treating the lactose-containing substrate with a β-galactosidase and/or a β-glucosidase in the presence of fructose, thereby generating a lactulose-containing substrate, wherein the fructose is admixed with the lactose-containing substrate before carrying out step b), c) inactivating the β-galactosidase and/or the β-glucosidase by heating, and d) generating a lactulose-containing retentate by nanofiltration and diafiltration of the lactulose-containing substrate, wherein the diafiltration is carried out after the nanofiltration, the nanofiltration is carried out at a transmembrane pressure difference of 10 bar to 50 bar, and the transmembrane pressure difference is reduced before diafiltration.
A method for testing a cryptography circuit incorporating a secret and comprising registers (1, 2) and logic gates (10, 211, 212, 213, 214) interconnected by a set of nodes, characterized in that said method performs a differential power analysis comprising: - a phase of acquiring measurements of power-consumption traces at all the nodes as a function of test signal vectors at the input of the circuit; - a phase of analyzing the rate of activity of each node based on the measurements of the power-consumption traces, a node being considered to be operating correctly when its activity complies with an activity prediction template. - a phase of acquiring measurements of power-consumption traces at all the nodes as a function of test signal vectors at the input of the circuit; - a phase of analyzing the rate of activity of each node based on the measurements of the power-consumption traces, a node being considered to be operating correctly when its activity complies with an activity prediction template.