mhurhangee/ep-ind-claims huggingface dataset:
A medical waste fluid collection system comprising: a lid provided with a first port and a second different port; and a connector configured to connect with the ports, the connector comprising: a main body extending along a primary axis and defining a lumen, the lumen extending between a lower mouth at a lower portion of the main body and an upper mouth at an upper portion of the main body; a first mating portion; and a second mating portion; wherein the first mating portion and the first port are configured to engage each other such that the lower mouth of the connector extends a predetermined distance into an interior of the medical waste fluid collection system when the connector is connected with the first port; and the second mating portion and the second port are configured to engage each other such that the lower mouth of the connector extends the same predetermined distance into the interior of the medical waste fluid collection system when the connector is connected with the second port, the second port being larger than the first port. a lid provided with a first port and a second different port; and a connector configured to connect with the ports, the connector comprising: a main body extending along a primary axis and defining a lumen, the lumen extending between a lower mouth at a lower portion of the main body and an upper mouth at an upper portion of the main body; a first mating portion; and a second mating portion; a main body extending along a primary axis and defining a lumen, the lumen extending between a lower mouth at a lower portion of the main body and an upper mouth at an upper portion of the main body; a first mating portion; and a second mating portion; wherein the first mating portion and the first port are configured to engage each other such that the lower mouth of the connector extends a predetermined distance into an interior of the medical waste fluid collection system when the connector is connected with the first port; and the second mating portion and the second port are configured to engage each other such that the lower mouth of the connector extends the same predetermined distance into the interior of the medical waste fluid collection system when the connector is connected with the second port, the second port being larger than the first port.
An integrated sensor assembly for use on an aircraft fuel system; the integrated sensor assembly incorporating a housing (48, 54), said housing receiving a circuit board, a temperature sensor, a point level sensor and a fuel density sensor; and a first fuel height sensor positioned outwardly of said housing; wherein said first fuel height sensor includes a pair of coaxial tubular members (68, 70) having an outer surface, with an outer one of said tubular members having a cylindrical outer surface, and said housing having a part cylindrical portion received on said cylindrical outer surface; wherein at least one wire extends from said first fuel height sensor into said housing; and wherein said at least one wire from said first fuel height sensor is connected into said circuit board; characterised by said housing also having a flat plate, and there being tabs on one of said cylindrical outer surface and an inner surface of said flat plate, and there being depressions in the other of said cylindrical outer surface and said inner surface with said tabs being received within said depressions to secure said housing on said cylindrical outer surface.
A method for placing a stringer preform upon a wing panel preform, the method comprising: creating a wing panel preform upon a layup forming tool; pulsing the wing panel preform through a series of stations; and applying stringer preforms to the wing panel preform at each station while the wing panel preform progresses through the stations; and splicing stringer perform segments together upon the wing panel preform. creating a wing panel preform upon a layup forming tool; pulsing the wing panel preform through a series of stations; and applying stringer preforms to the wing panel preform at each station while the wing panel preform progresses through the stations; and splicing stringer perform segments together upon the wing panel preform.
A seat to be installed in an aircraft cabin and comprising a seat base having at least one seating place, and a support leg for the seat base, - the seat base comprising a wall whose shape defines at least one transverse reinforcement of the seat base, - said seat furthermore comprising at least one anchor means for a safety belt, characterized in that said seat belt anchor means is positioned in a housing in the support leg, and in that the seat base is locally clamped between the seat belt anchor means and the support leg for the seat. - the seat base comprising a wall whose shape defines at least one transverse reinforcement of the seat base, - said seat furthermore comprising at least one anchor means for a safety belt,
Synthetic nutritional composition comprising at least the six human milk oligosaccharides 2'FL, DFL, LNnT, LNT, 3SL and 6SL for use to prevent and/or treat a health disorder by increasing the butyrate production in the digestive tract in an infant or a young child, such as the intestinal butyrate production, wherein the health disorder is selected from the list consisting of type 2 diabetes, insulin resistance.
A method for quantification of ambient mineral dust concentration, said method comprising the following steps: - sampling air samples with particle size smaller than 1 μm (PM 1) and sampling air samples with particle size up to 10 μm; - concentrating the samples with particle sizes up to 10 μm with a virtual impactor; - measuring optical absorption of collected samples at least one wavelength from 370 to 950 nm; - subtracting the absorption at one selected wavelength, of the samples with particle size smaller than 1 μm from the absorption of the sample concentrated by the virtual impactor and dividing the obtained absorption with a calibration constant. - sampling air samples with particle size smaller than 1 μm (PM 1) and sampling air samples with particle size up to 10 μm; - concentrating the samples with particle sizes up to 10 μm with a virtual impactor; - measuring optical absorption of collected samples at least one wavelength from 370 to 950 nm; - subtracting the absorption at one selected wavelength, of the samples with particle size smaller than 1 μm from the absorption of the sample concentrated by the virtual impactor and dividing the obtained absorption with a calibration constant.
Inflatable article provided with an elastomer layer airtight towards inflation gases, the said elastomer layer comprising at least one rubber composition comprising at least, as non-thermoplastic elastomer, a butyl rubber, used alone or as a blend with one or more other non-thermoplastic elastomers, a crosslinking system, optionally a reinforcing filler at a content within a range from 0 to 120 phr and a thermoplastic elastomer comprising a polyisobutylene block, characterized in that the content of thermoplastic elastomer is within a range from 3 to 80 phr, parts by weight per 100 parts of non-thermoplastic elastomer.
A vehicle occupant restraint system comprising an inflatable knee airbag, wherein the knee airbag includes an airbag sheath and at least one discharge orifice formed therein which is arranged in the upper half of the knee airbag, characterized in that the discharge orifice is provided on a side of the knee airbag facing away from the vehicle occupant which in the position of use of the knee airbag is directly opposed to a fixed component in the vehicle interior.
A method, for bounding an object in a video sequence from a subset of pixels (403, 603) per frame of said video sequence, the method being characterized in that it further comprises: - obtaining a first image from a first spatio-temporal slicing, wherein said first image is an horizontal concatenation of first slices (401, 601) comprising the subset (403, 603) of pixels for frames along said video sequence; - obtaining a second image from a second spatio-temporal slicing, wherein said second image is a vertical concatenation of second slices (402, 602) comprising the subset (403, 603) of pixels for frames along said video sequence, each of said second slices (402, 602) being orthogonal to the first slice (401, 601) of a same frame; - obtaining (S321, S322) a first and a second trajectory of the subsets (403, 603) of pixels per frame on each of said first and said second images; - obtaining (S331, S332) on each of said first and second images a first (511, 521) and a second (512, 522) boundary around said first and second trajectory by means of a contour detection method; - obtaining a bounding form (540, 541, 542, 605) out of four points, around said object in each frame of the video sequence, wherein the coordinates of said four points in a frame t are obtained from the coordinates of the points located in the first (511, 521) and second (512, 522) boundary of the first and second image for that frame t. - obtaining a first image from a first spatio-temporal slicing, wherein said first image is an horizontal concatenation of first slices (401, 601) comprising the subset (403, 603) of pixels for frames along said video sequence; - obtaining a second image from a second spatio-temporal slicing, wherein said second image is a vertical concatenation of second slices (402, 602) comprising the subset (403, 603) of pixels for frames along said video sequence, each of said second slices (402, 602) being orthogonal to the first slice (401, 601) of a same frame; - obtaining (S321, S322) a first and a second trajectory of the subsets (403, 603) of pixels per frame on each of said first and said second images; - obtaining (S331, S332) on each of said first and second images a first (511, 521) and a second (512, 522) boundary around said first and second trajectory by means of a contour detection method; - obtaining a bounding form (540, 541, 542, 605) out of four points, around said object in each frame of the video sequence, wherein the coordinates of said four points in a frame t are obtained from the coordinates of the points located in the first (511, 521) and second (512, 522) boundary of the first and second image for that frame t.
Bearing housing having a bearing housing lid for an exhaust gas turbocharger, - wherein the bearing housing lid is disposed on the bearing housing, - wherein the bearing housing lid has a penetrating rotationally-symmetrical seal recess with a central axis, - wherein in the seal recess is disposed at least in some portions a sealing bush, - wherein the sealing bush has a penetrating shaft recess, rotationally-symmetrical to the central axis, for a shaft, - wherein the bearing housing lid has a bearing surface facing the bearing housing and extending radially from the central axis, which bearing surface is situated opposite to an abutment surface of the sealing bush, - wherein the bearing housing lid has in the bearing surface a groove radially spaced from the central axis and at least partially circumferential, characterised in that the groove has a run-off area disposed below the central axis expanded radially to the outside from the central axis, such that the groove runs in oviform manner or tapered downwards in the expanded run-off area, in order to let the lubrication oil which has collected in the groove run off. - wherein the bearing housing lid is disposed on the bearing housing, - wherein the bearing housing lid has a penetrating rotationally-symmetrical seal recess with a central axis, - wherein in the seal recess is disposed at least in some portions a sealing bush, - wherein the sealing bush has a penetrating shaft recess, rotationally-symmetrical to the central axis, for a shaft, - wherein the bearing housing lid has a bearing surface facing the bearing housing and extending radially from the central axis, which bearing surface is situated opposite to an abutment surface of the sealing bush, - wherein the bearing housing lid has in the bearing surface a groove radially spaced from the central axis and at least partially circumferential,
An in vitro screening method for assessing whether a subject is at risk to develop or is suffering from ovarian cancer comprising: determining from a sample from said subject a concentration of at least one small molecule biomarker, wherein an increase in the concentration of the at least one small molecule biomarker in said sample, when compared to a control sample, is indicative of said subject suffering from or having an increased risk of developing ovarian cancer; wherein the at least one small molecule biomarker whose increase in concentration is compared to the control sample is selected from the group consisting of dihydroxybutyric acids and trihydroxybutyric acid. determining from a sample from said subject a concentration of at least one small molecule biomarker, wherein an increase in the concentration of the at least one small molecule biomarker in said sample, when compared to a control sample, is indicative of said subject suffering from or having an increased risk of developing ovarian cancer; wherein the at least one small molecule biomarker whose increase in concentration is compared to the control sample is selected from the group consisting of dihydroxybutyric acids and trihydroxybutyric acid.
An interposer characterized in that the interposer comprises: a substrate having a through hole; at least one insulative resin layer formed on a surface of the substrate and including a conductive via; at least one wiring layer disposed on the substrate with the insulative resin layer interposed therebetween; an inorganic adhesive layer formed only on a side surface of the through hole; and a through electrode filled in a connection hole which is formed by the inorganic adhesive layer in the through hole so as to establish electrical connection between both surfaces of the substrate, wherein the through electrode is electrically connected to the wiring layer via the conductive via, and a thermal expansion coefficient of the inorganic adhesive layer is larger than a thermal expansion coefficient of the substrate and smaller than a thermal expansion coefficient of the through electrode. a substrate having a through hole; at least one insulative resin layer formed on a surface of the substrate and including a conductive via; at least one wiring layer disposed on the substrate with the insulative resin layer interposed therebetween; an inorganic adhesive layer formed only on a side surface of the through hole; and a through electrode filled in a connection hole which is formed by the inorganic adhesive layer in the through hole so as to establish electrical connection between both surfaces of the substrate, wherein the through electrode is electrically connected to the wiring layer via the conductive via, and a thermal expansion coefficient of the inorganic adhesive layer is larger than a thermal expansion coefficient of the substrate and smaller than a thermal expansion coefficient of the through electrode.
Use of a herbicide enhancer agent for enhancing the efficiency of herbicides, wherein the herbicide enhancer agent comprises a polyferulate with an average molecular mass higher than 400 g/mol.
A controller area network, CAN, driver module, comprising: at least one driver component (210, 220), the at least one driver component comprising at least one control input (212, 222) arranged to receive at least one control signal (215, 225), and at least one output (214, 224) for coupling to at least one CAN bus line (230, 235) and arranged to controllably output a load current (218, 228) based at least partly on the received at least one control signal; and at least one electrostatic discharge, ESD, protection component (240, 245) which can be operably coupled to the at least one CAN bus line, the CAN driver module characterised in that the CAN driver module further comprises: at least one load current sensing component (260, 265) arranged to sense the load current output by the at least one driver component and to generate at least one load current signal (270, 275) comprising an indication of the load current output by the at least one driver component; and at least one load current limiting component (280, 285) arranged to receive the at least one load current signal generated by the at least one load current sensing component and to cause the at least one driver component to at least partially restrict the load current output thereby if the at least one load current signal indicates that the load current exceeds a threshold, the CAN driver module further characterised in that the at least one ESD protection component comprises at least one ESD protection element (242, 247) comprising at least one snapback property and at least one non-snapback protection element (244, 249) operably coupled in parallel across the at least one ESD protection element; the at least one non-snapback protection element comprising a breakdown voltage that is less than a breakdown voltage of the at least one ESD protection element. at least one driver component (210, 220), the at least one driver component comprising at least one control input (212, 222) arranged to receive at least one control signal (215, 225), and at least one output (214, 224) for coupling to at least one CAN bus line (230, 235) and arranged to controllably output a load current (218, 228) based at least partly on the received at least one control signal; and at least one electrostatic discharge, ESD, protection component (240, 245) which can be operably coupled to the at least one CAN bus line, at least one load current sensing component (260, 265) arranged to sense the load current output by the at least one driver component and to generate at least one load current signal (270, 275) comprising an indication of the load current output by the at least one driver component; and at least one load current limiting component (280, 285) arranged to receive the at least one load current signal generated by the at least one load current sensing component and to cause the at least one driver component to at least partially restrict the load current output thereby if the at least one load current signal indicates that the load current exceeds a threshold,
A method for partitioning one or more energy sources or power sources (208, 308, 408, 1320, 1420, 2207, 2708, 2818, 2820, 2822, 2908, 3008, 3101, 3201) of an electronic device, said electronic device comprising circuits for transmission and reception of information bearing functions of time, each partition having one or more corresponding signal sample regions, each signal sample region corresponding to a range of voltage and current, said voltage and current being used to power the device and form signals, wherein each sample region includes one or more samples that are used to render a desired information bearing function of time, the method comprising: identifying one or more associated signal statistics (309, 330, 332, 334) of a desired information bearing function of time that are associated with the one or more energy sources or power sources (208, 308, 408, 1320, 1420, 2207, 2708, 2818, 2820, 2822, 2908, 3008, 3101, 3201) and signal sample regions; and partitioning at least one of the energy sources or power sources into one or more partitions based on the identified associated signal statistics (309, 330, 332, 334), wherein the number of partitions is a function of a desired resolution for rendering the desired information bearing function of time, and a desired signal efficiency for rendering the desired information bearing function of time at a communications sink. identifying one or more associated signal statistics (309, 330, 332, 334) of a desired information bearing function of time that are associated with the one or more energy sources or power sources (208, 308, 408, 1320, 1420, 2207, 2708, 2818, 2820, 2822, 2908, 3008, 3101, 3201) and signal sample regions; and partitioning at least one of the energy sources or power sources into one or more partitions based on the identified associated signal statistics (309, 330, 332, 334), wherein the number of partitions is a function of a desired resolution for rendering the desired information bearing function of time, and a desired signal efficiency for rendering the desired information bearing function of time at a communications sink.
Control apparatus having at least a first energy storage unit for a motor vehicle and a second energy storage unit for the motor vehicle, which has a non-volatile memory having a first initial configuration of the first energy storage unit and a second initial configuration of the second energy storage unit, wherein the non-volatile memory is connected in a data-transmitting manner to a further memory having an adaptation configuration of the first energy storage unit and of the second energy storage unit, wherein the adaptation configuration is used to at least partially adapt the initial configurations (22, 23); the non-volatile memory has a first memory part having the first initial configuration and a second memory part which is functionally decoupled from the first memory part and has the second initial configuration; wherein the first memory part is connected to a voltage supply for the first energy storage unit and the second memory part is connected to a voltage supply for the second energy storage unit, and the first memory part is electrically connected to the further memory using a first data line and the second memory part is electrically connected to the further memory using a second data line which differs from the first data line, and the further memory is connected only to a voltage supply for the second energy storage unit; wherein the control apparatus has a functional unit which controls the first energy storage unit and the second energy storage unit on the basis of the first initial configuration and the second initial configuration; wherein the functional unit is electrically connected directly to the first memory part by means of a third data line and is electrically connected directly to the further memory by means of a further data line; wherein, if the second energy storage unit fails, the functional unit is set up to obtain the first initial configuration directly from the first memory part via the third data line.
Cassegrain optics (8, 10) for imaging an object scene on a detector, the Cassegrain optics comprising detector optics (16, 66) having an objective having a plurality of lenses (50, 52, 54, 56, 68, 70, 72, 74), mirror optics which can move relative to the detector optics (16, 66) and have a main mirror and a secondary mirror, and an optical joint for slaving the beam path to the detector in the event of a roll-pitch movement of the mirror optics, characterized in that the main mirror has a diffractive surface, wherein the diffractive surface is expediently selected so that the focal point of the main mirror is at different distances for different colours.