mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a sensor module comprising an integrated circuit and a sensor, the method comprising: mounting an integrated circuit, IC die on a printed circuit board, PCB, using a high temperature mounting process to provide an electrical connection between interconnects of the PCB and the IC die, wherein the high temperature mounting process is defined as a soldering process, a reflow soldering process, or a wave soldering process, wherein the IC die is encapsulated by an encapsulation material, wherein a portion of the encapsulation material formed on a top side of the IC die includes one opening, said opening exposing at least one electrical contact on the top side of the IC die; and printing a sensor directly onto the top side of the IC die after all high temperature mounting processes are complete, wherein printing the sensor directly onto the exposed at least one electrical contact thereby provides an electrical connection between the IC die and the sensor. mounting an integrated circuit, IC die on a printed circuit board, PCB, using a high temperature mounting process to provide an electrical connection between interconnects of the PCB and the IC die, wherein the high temperature mounting process is defined as a soldering process, a reflow soldering process, or a wave soldering process, wherein the IC die is encapsulated by an encapsulation material, wherein a portion of the encapsulation material formed on a top side of the IC die includes one opening, said opening exposing at least one electrical contact on the top side of the IC die; and wherein the high temperature mounting process is defined as a soldering process, a reflow soldering process, or a wave soldering process, wherein the IC die is encapsulated by an encapsulation material, wherein a portion of the encapsulation material formed on a top side of the IC die includes one opening, said opening exposing at least one electrical contact on the top side of the IC die; and printing a sensor directly onto the top side of the IC die after all high temperature mounting processes are complete, wherein printing the sensor directly onto the exposed at least one electrical contact thereby provides an electrical connection between the IC die and the sensor.
Apparatus to make a metal mesh, said apparatus comprising: - a first feed group configured to feed in first directions at least two first longitudinal rods lying on a first feed plane; - a second feed group configured to feed in a second direction, transverse to the first directions, on each occasion a transverse rod lying on a second feed plane parallel to said first feed plane; - a first welding unit configured to weld on each occasion to said first longitudinal rods the transverse rod fed by said second feed group and to obtain a reticular semi-worked product; characterized in that it comprises: - a third feed group configured to feed on each occasion a second longitudinal rod lying on a third feed plane parallel to said second feed plane and positioning it during use parallel to said first longitudinal rods of said reticular semi-worked product; - a second welding unit to weld on each occasion the second longitudinal rod to said transverse rods. - a first feed group configured to feed in first directions at least two first longitudinal rods lying on a first feed plane; - a second feed group configured to feed in a second direction, transverse to the first directions, on each occasion a transverse rod lying on a second feed plane parallel to said first feed plane; - a first welding unit configured to weld on each occasion to said first longitudinal rods the transverse rod fed by said second feed group and to obtain a reticular semi-worked product; - a third feed group configured to feed on each occasion a second longitudinal rod lying on a third feed plane parallel to said second feed plane and positioning it during use parallel to said first longitudinal rods of said reticular semi-worked product; - a second welding unit to weld on each occasion the second longitudinal rod to said transverse rods.
Mixture of carbohydrates for its use in a food product intended for enteral or oral nutrition characterised in that it contains type IV resistant starch, maltodextrin of low dextrose equivalent DE = 5-8, inulin and cellulose.
A method of treating a spent aromatization catalyst comprising a transition metal and a catalyst support, the method comprising: contacting the spent aromatization catalyst with a halogen-containing stream comprising chlorine gas and fluorine gas (F 2) to produce a halogenated spent aromatization catalyst; and either: contacting the halogenated spent aromatization catalyst with a purging stream consisting essentially of an inert gas; and contacting the halogenated spent aromatization catalyst with a decoking gas stream comprising oxygen, wherein the decoking gas stream contains less than 100 ppmw of halogen-containing compounds; or contacting the halogenated spent aromatization catalyst with a decoking gas stream comprising oxygen; wherein the decoking gas stream contains less than 100 ppmw of halogen-containing compounds. contacting the spent aromatization catalyst with a halogen-containing stream comprising chlorine gas and fluorine gas (F 2) to produce a halogenated spent aromatization catalyst; and either: contacting the halogenated spent aromatization catalyst with a purging stream consisting essentially of an inert gas; and contacting the halogenated spent aromatization catalyst with a decoking gas stream comprising oxygen, wherein the decoking gas stream contains less than 100 ppmw of halogen-containing compounds; or contacting the halogenated spent aromatization catalyst with a decoking gas stream comprising oxygen;
Arrangement of an accessory part on a flange component, wherein the flange component has a wall side for fastening to a wall and an outer side, a recess is provided in the edge region of the wall side, a connecting element is arranged in the region of the recess, the accessory part has a base plate with a wall side and an outer side, and a tab having an opening is provided in the edge region of the base plate, characterized in that the accessory part is plugged onto the wall side of the flange component in such a way that the connecting element engages in the opening of the tab and the tab engages in the recess of the flange component, with the result that the flange component and the accessory part are arranged next to one another and connected to one another in a form-fitting manner, with the result that, when fastening the flange component to a wall, the accessory part can be clamped between the flange component and the wall in the region of the tab.
A fibrin sealant composition comprising a fibrinogen complex component, a thrombin component, and a cellular component, wherein the concentration of fibrinogen used to form the gel is between from 2 to 5 mg/ml, wherein the cellular component comprises one or more of stem/progenitor cells, and wherein the fibrin sealant comprises at least 1.5 - 2.0 X 10 6 stem/progenitor cells / cm 2.
A cured or uncured structural composite material comprising - a structural component in a form of a plurality of layers of textile that comprises fibres having a modulus of elasticity of greater than 50 GPa, hereinafter referred to as structural fibers; - a resin component; and - a viscoelastic interleaf having a thickness ranging from 50 μm to 1000 μm and a mass per unit area of 10 g/m 2 to 500 g/m 2, positioned between a pair of adjacent layers of the said textile, said viscoelastic interleaf being a thin layer of nonwoven material comprising at least one thermoplastic elastomer, or a blend thereof, and the fiber diameter in the interleaf being in the range of from 3 μm to 7 μm, or from 10 μm to 60 μm; wherein the viscoelastic interleaf and structural component are partially or completely impregnated with the resin component; and wherein upon curing the viscoelastic interleaf is integrated in the structural composite material. - a structural component in a form of a plurality of layers of textile that comprises fibres having a modulus of elasticity of greater than 50 GPa, hereinafter referred to as structural fibers; - a resin component; and - a viscoelastic interleaf having a thickness ranging from 50 μm to 1000 μm and a mass per unit area of 10 g/m 2 to 500 g/m 2, positioned between a pair of adjacent layers of the said textile, said viscoelastic interleaf being a thin layer of nonwoven material comprising at least one thermoplastic elastomer, or a blend thereof, and the fiber diameter in the interleaf being in the range of from 3 μm to 7 μm, or from 10 μm to 60 μm;
A rotary transmitter for electrical signals, data and/or electrical energy, with a first portion (21; 81) having at least one sliding contact (61; 62), and with a second portion (81; 21), which is mounted rotatably about a rotation axis relative to the first portion (21; 81) and has at least one contact ring contacting the sliding contact (61; 62), at least two sliding contacts (61, 62) bearing against each contact ring, the rotary transmitter having at least one circumferential media channel, and the contact rings being situated radially outside the at least one media channel, characterised in that - the rotary transmitter has two circuit boards (53, 54), to each of which one of said sliding contacts (61, 62) is assigned, - said two circuit boards (53, 54), which form a circuit board group (51; 52), form a circuit board angle (β) between (π/2) and (π) with one another in a normal plane to the rotation axis, - said circuit board group (51; 52) is arranged on a single circuit board carrier, - the rotary transmitter has at least two round sealing rings, which are arranged coaxially with the rotation axis, bear against both portions (21, 81) and delimit at least the circumferential media channel. - the rotary transmitter has two circuit boards (53, 54), to each of which one of said sliding contacts (61, 62) is assigned, - said two circuit boards (53, 54), which form a circuit board group (51; 52), form a circuit board angle (β) between (π/2) and (π) with one another in a normal plane to the rotation axis, - said circuit board group (51; 52) is arranged on a single circuit board carrier, - the rotary transmitter has at least two round sealing rings, which are arranged coaxially with the rotation axis, bear against both portions (21, 81) and delimit at least the circumferential media channel.
A transgenic seed of corn event MIR162 treated with an insecticide, wherein said transgenic corn seed comprises the nucleic acid molecule consisting of SEQ ID NO: 49 and its complement thereof.
An air-cooled voice coil actuator for a mechanical resonant system, the air-cooled voice coil actuator comprising: a bobbin made from a material that is electrically nonconductive; a rigid plate coupled to a top inner surface of the bobbin; an electrical conductor coupled to the bobbin; a magnet assembly including: a magnet housing, and a magnet located within the magnet housing and being coupled to the magnet housing, the magnet including a centrally located opening defining a channel extending through the magnet assembly; and a cooling system; wherein the bobbin is positioned within a gap formed by the magnet and the magnet housing; wherein the bobbin, the rigid plate, the magnet, and the magnet housing collectively define a flow path; wherein the bobbin and the magnet assembly are configured to oscillate when an alternating current is applied to the electrical conductor; and wherein the cooling system is configured to circulate an air flow through the channel and the flow path. a bobbin made from a material that is electrically nonconductive; a rigid plate coupled to a top inner surface of the bobbin; an electrical conductor coupled to the bobbin; a magnet assembly including: a magnet housing, and a magnet located within the magnet housing and being coupled to the magnet housing, the magnet including a centrally located opening defining a channel extending through the magnet assembly; and a cooling system; wherein the bobbin is positioned within a gap formed by the magnet and the magnet housing; wherein the bobbin, the rigid plate, the magnet, and the magnet housing collectively define a flow path; wherein the bobbin and the magnet assembly are configured to oscillate when an alternating current is applied to the electrical conductor; and wherein the cooling system is configured to circulate an air flow through the channel and the flow path. a magnet housing, and a magnet located within the magnet housing and being coupled to the magnet housing, the magnet including a centrally located opening defining a channel extending through the magnet assembly; and a cooling system; wherein the bobbin is positioned within a gap formed by the magnet and the magnet housing; wherein the bobbin, the rigid plate, the magnet, and the magnet housing collectively define a flow path; wherein the bobbin and the magnet assembly are configured to oscillate when an alternating current is applied to the electrical conductor; and wherein the cooling system is configured to circulate an air flow through the channel and the flow path.
A backlight unit (120, 200, 620, 720, 800, 900, 1300, 1400) comprising: a light source (217, 542, 622, 810, 910, 1310, 1410) formed to provide primary light; a quantum dot phosphor (841, 941, 1041, 1141, 1241) excited by the primary light provided from the light source (217, 542, 622, 810, 910, 1310, 1410) to emit secondary light having a wavelength different from a wavelength of the primary light and disposed to be spaced apart from the light source (217, 542, 622, 810, 910, 1310, 1410); an optical agent (1044, 1144, 1244) absorbing light having a specific wavelength from the primary light or the secondary light to reduce a full width at half maximum of a peak in an optical spectrum; and a matrix (1043, 1143a, 1143b, 1243) configured to support the quantum dot phosphor (841, 941, 1041, 1141, 1241) and the optical agent (1044, 1144, 1244), wherein the quantum dot phosphor (841, 941, 1041, 1141, 1241), the optical agent (1044, 1144, 1244), and the matrix (1043, 1143a, 1143b, 1243) form a composite (1040 1140a, 1140b, 1240). a light source (217, 542, 622, 810, 910, 1310, 1410) formed to provide primary light; a quantum dot phosphor (841, 941, 1041, 1141, 1241) excited by the primary light provided from the light source (217, 542, 622, 810, 910, 1310, 1410) to emit secondary light having a wavelength different from a wavelength of the primary light and disposed to be spaced apart from the light source (217, 542, 622, 810, 910, 1310, 1410); an optical agent (1044, 1144, 1244) absorbing light having a specific wavelength from the primary light or the secondary light to reduce a full width at half maximum of a peak in an optical spectrum; and a matrix (1043, 1143a, 1143b, 1243) configured to support the quantum dot phosphor (841, 941, 1041, 1141, 1241) and the optical agent (1044, 1144, 1244), wherein the quantum dot phosphor (841, 941, 1041, 1141, 1241), the optical agent (1044, 1144, 1244), and the matrix (1043, 1143a, 1143b, 1243) form a composite (1040 1140a, 1140b, 1240).
Method for characterizing a sample, including a liquid medium containing particles, the method comprising the following steps: a) illuminating the sample using a light source that is able to emit an incident light wave that propagates towards the sample; b) acquiring, using an image sensor, at least one image of the light wave (14, 14') transmitted by the sample thus illuminated; c) characterizing the sample depending on an intensity of the light wave detected by the image sensor; the method comprising, prior to step b), a step of applying an acoustic wave to the sample, said acoustic wave forming pressure nodes and pressure antinodes in the sample, so as to separate, in the latter, a portion poor in particles and a portion rich in particles, the method being characterized in that step c) includes: - identifying, in the image, a region of interest corresponding to the portion of the sample that is poor in particles; - determining an optical property of the liquid medium, in the region of interest thus identified, the optical property varying depending on an amount of an analyte in the sample; - estimating the amount of the analyte in the liquid medium, on the basis of said optical property in the region of interest. a) illuminating the sample using a light source that is able to emit an incident light wave that propagates towards the sample; b) acquiring, using an image sensor, at least one image of the light wave (14, 14') transmitted by the sample thus illuminated; c) characterizing the sample depending on an intensity of the light wave detected by the image sensor; - identifying, in the image, a region of interest corresponding to the portion of the sample that is poor in particles; - determining an optical property of the liquid medium, in the region of interest thus identified, the optical property varying depending on an amount of an analyte in the sample; - estimating the amount of the analyte in the liquid medium, on the basis of said optical property in the region of interest.
Valve for metering a fluid, having a valve housing, on which a valve opening which is enclosed by a valve seat is configured, having a valve needle which is provided with a closing body which can be placed onto the valve seat and raised up from the valve seat for selectively closing and opening the valve, having a restoring member which loads the valve needle for closing the valve, and having an energizable electromagnet which has a magnet armature which can be driven to perform a reciprocating movement, is seated displaceably on the valve needle and, in order to open the valve, drives the valve needle in the reciprocating direction via a driver flange which is arranged on the said valve needle, characterized by a diaphragm spring which supports the magnet armature on the valve housing.
An operative insert (10, 11, 12, 13, 14) for a device for processing foodstuffs, which has a receptacle for the operative insert which is driven in rotation about an axis of rotation and to which the operative insert (10, 11, 12, 13, 14) can be releasably fastened in a torque-locking manner with a drive interface, wherein the operative insert (10, 11, 12, 13, 14) bears at least one working means, which can be driven rotatably in a working direction by the drive interface and can be uncoupled therefrom in relation to the rotational movement by a freewheel upon a reversal of the direction of rotation of the drive interface, characterized in that a support spindle bears the at least one working means, wherein the support spindle (60, 63) can be driven rotatably in a working direction by the drive interface and can be uncoupled therefrom in relation to the rotational movement by the freewheel upon reversal of the direction of rotation of the drive interface.
A ionizer for emitting negative ions, the ionizer including a carbon brush with carbon filaments, a transformer, an electrical cable connecting the carbon brush to the transformer, and an electrical cable connecting the transformer to the mains, wherein the carbon brush is implemented in a way that the carbon filaments are arranged around a metal wire and inserted into a metal housing, with the metal wire fixed against the wall of the metal housing, wherein the carbon brush with the carbon filaments is inserted into a protective plastic barrier, characterized in that the protective plastic barrier being formed of an upper part and a bottom part, the upper part being provided with an upper recess having an upper step from its upper side, and the bottom part being provided with a bottom recess having a bottom step from its bottom side, wherein at the contact of the upper and bottom parts, the recesses (4a, 4b) with the two steps (4c, 4d) delimit a cavity adapted to receive the metal housing of the carbon brush and at the same time the steps (4c, 4d) define an opening in such a way that, when the metal housing is placed in the cavity, the carbon filaments protrude from the protective plastic barrier through the opening delimited by the two steps (4c, 4d).
Electrical connector assembly, comprising: a bulkhead configured to be received within an aperture defined by a housing formed of a conductive metallic material, said housing defining a cavity containing a plurality of electrical devices, said bulkhead including a plurality of electrical connectors configured to receive and mate with a plurality of corresponding mating connectors, wherein said bulkhead defines a plurality of connector shrouds that axially surround each connector in the plurality of electrical connectors, each connector shroud configured to receive a connector body of a corresponding mating connector, wherein said plurality of connector shrouds is integral to the bulkhead and wherein the plurality of electrical connectors is configured to be electrically connected to said plurality of electrical devices, wherein the bulkhead, and thereby the plurality of connector shrouds, is formed of a composite conductive material.
A window for a building comprising a pane element, which includes a first sheet element intended to face the exterior and a second sheet element intended to face the interior of a building in the mounted state, said sheet elements, such as sheets of glass, being separated by one or more spacer members, and comprising a screening device for screening the pane element, characterized in that the pane element is surrounded by a moulded border element, which at least partially encases the edge of at least one sheet element (102, 104), and that the screening device is mounted in the border element at the exterior face thereof.
A composition comprising i) 10 - 90 wt.% of an ethylenically unsaturated component, ii) 10 - 90 wt.% of a component having urethane and/or urea groups, iii) 0 - 4 wt.% of an organic component which is different from components and, and iv) 0 - 9 wt.% of other ingredients wherein the wt.% are calculated on the total weight of the composition, wherein the sum of the wt.% of component and the wt.% of component is 91 - 100 wt.%, component consists of compounds having 1 - 8 ethylenically unsaturated bonds and a molar mass of 100 - 1400 g/mol, component contains no amino groups, component contains no primary and no secondary amino groups, component consists of compounds having 2 - 40 functional groups selected from urethane and urea groups, having 1 - 40 groups selected from tertiary amino groups, salts thereof, quaternary ammonium groups, and mixtures thereof, component contains not more tertiary amino groups than the sum of urethane and urea groups, and component has a nitrogen content in the range of 1.0 to 12.0 wt.%, component consists of organic compounds having a molar mass of less than 1000 g/mol. i) 10 - 90 wt.% of an ethylenically unsaturated component, ii) 10 - 90 wt.% of a component having urethane and/or urea groups, iii) 0 - 4 wt.% of an organic component which is different from components and, and iv) 0 - 9 wt.% of other ingredients wherein the wt.% are calculated on the total weight of the composition, wherein the sum of the wt.% of component and the wt.% of component is 91 - 100 wt.%, component consists of compounds having 1 - 8 ethylenically unsaturated bonds and a molar mass of 100 - 1400 g/mol, component contains no amino groups, component contains no primary and no secondary amino groups, component consists of compounds having 2 - 40 functional groups selected from urethane and urea groups, having 1 - 40 groups selected from tertiary amino groups, salts thereof, quaternary ammonium groups, and mixtures thereof, component contains not more tertiary amino groups than the sum of urethane and urea groups, and component has a nitrogen content in the range of 1.0 to 12.0 wt.%, component consists of organic compounds having a molar mass of less than 1000 g/mol.