mhurhangee/ep-ind-claims huggingface dataset:
A heating device, which comprises at least one shell which defines internally a compartment for accommodating a generator of infrared radiation, said compartment being delimited at least by a wall that is transparent to infrared radiation, for delivering infrared radiation to the outside, said generator comprising a plurality of sources of infrared radiation (6a, 6b) which have an elongated shape structure, said sources (6a, 6b) being arranged parallel to each other within said compartment with longitudinally symmetrical distribution, a first central one of said sources being interposed between respective lateral sources, which are arranged closer to said transparent wall with respect to said central source, on the opposite side with respect to said transparent wall said compartment being delimited by a curved and convex reflective wall, longitudinally symmetrical, for conveying the infrared radiation delivered by said sources (6a, 6b) to an outside area adjacent to said transparent wall and the localized heating of an object, arranged in said outside area, said heating device comprising at least one apparatus for measuring the temperature, provided with at least one main sensor, for the measurement instant by instant of the temperature value assumed by the object to be heated, when it is arranged at said outside area adjacent to said transparent wall, said apparatus being controlled by an electronic unit for the control and management of the power delivered by said sources (6a, 6b), said main sensor being a pyrometer, directed toward said outside area adjacent to said transparent wall, for the measurement without contact of the temperature value assumed by the object to be heated, characterized in that it comprises means of calibration of said measurement apparatus, for the optimal calibration of said apparatus as a function at least of the color and/or of the surface finish of the specific object in each instance to be heated, said means of calibration comprising a box-like body which accommodates a calibration sensor, constituted by an additional pyrometer, chosen to be of the type of said main sensor, and a contact temperature sensor, said calibration sensor and said contact temperature sensor being previously arrangeable on the object to be heated for a twofold measurement of the temperature and the calculation of the emissivity coefficient of the specific object in each instance to be heated.
Vehicle tyre comprising a tread, a breaker belt, a tyre carcass with at least one carcass ply, sidewalls and a tyre bead with a bead core and a bead filler, wherein the bead core comprises in cross section a multiplicity of reinforcing elements and the bead filler is connected on its underside to the upper side of the bead core, wherein the vehicle tyre also has a transponder with a transponder chip and an antenna (2, 3, 14, 15) connected to the transponder chip, wherein the transponder is arranged in the tyre bead between the carcass ply and the tyre inner liner, wherein the height dimension in the radial direction of the vehicle tyre between the transponder and the underside of the bead filler is at least 3 mm, characterized in that the core and the bead filler are covered by a rubber ply, wherein the rubber ply is a rubberized textile or steel cord ply.
A device ensuring a two-phase flow in a liquid atomiser, equipped in its upper part with a discharge control assembly, the device contains at least one egress channel, as well as a plunger tube, placed below this assembly and interconnected with this assembly, the plunger tube having in its lowermost section an ingress channel, optionally outfitted with a filter to keep away impurities, and interconnected with the discharge control assembly, and further downstream with an egress channel, wherein the plunger tube is outfitted with a liquid flow restrictor and, above the restrictor, a row of side openings connecting external space of the tube with its inner channel, where the successive side openings are positioned longitudinally along the tube at different distances from the restrictor, characterised in that the side openings are positioned on the tube so that the reciprocal perpendicular distance between the adjacent openings increases when approaching the upper part of the device, and such arrangement of the openings applies at least to a part of the tube.
A pump assembly for dispensing of a fluid and of particles of a solid material comprising: a fluid pump which in a cycle of operation draws the fluid through a fluid inlet and dispenses the fluid out a fluid outlet, a rasp member (76, 272, 411, 521, 625, 750), characterized by the fluid pump including a pump housing body (12, 512, 612, 712) and a pump element (14, 514, 614, 714) mounted to the pump housing body (12, 512, 612, 712) for movement relative the pump housing body (12, 512, 612, 712) in the cycle of operation to draw and dispense the fluid, a block (201, 258, 430, 743) of the solid material coalesced together, the pump element (14, 514, 614, 714) and the rasp member (76, 272, 411, 521, 25) mechanically linked such that during the cycle of operation with movement of the pump element (14, 514, 614, 714) relative the pump housing body (12,512,612,712) to dispense the fluid, the rasp member (76, 272, 411, 521, 625, 750) is moved relative the block (201, 258, 430, 743) in engagement with the block (201,258,430,743) to disengage particles of the solid material from the block (201, 258, 430, 743) which particles drop under gravity downwardly adjacent the fluid outlet. a fluid pump which in a cycle of operation draws the fluid through a fluid inlet and dispenses the fluid out a fluid outlet, a rasp member (76, 272, 411, 521, 625, 750), characterized by the fluid pump including a pump housing body (12, 512, 612, 712) and a pump element (14, 514, 614, 714) mounted to the pump housing body (12, 512, 612, 712) for movement relative the pump housing body (12, 512, 612, 712) in the cycle of operation to draw and dispense the fluid, a block (201, 258, 430, 743) of the solid material coalesced together, the pump element (14, 514, 614, 714) and the rasp member (76, 272, 411, 521, 25) mechanically linked such that during the cycle of operation with movement of the pump element (14, 514, 614, 714) relative the pump housing body (12,512,612,712) to dispense the fluid, the rasp member (76, 272, 411, 521, 625, 750) is moved relative the block (201, 258, 430, 743) in engagement with the block (201,258,430,743) to disengage particles of the solid material from the block (201, 258, 430, 743) which particles drop under gravity downwardly adjacent the fluid outlet.
A method for producing a spatially varied separation medium, the method comprising: exposing a separation medium precursor solution to light from a light source through a photomask comprising a semi-transparent region with varied light transmittance to produce the separation medium, wherein the photomask includes a grid pattern of an opaque material on a surface of an optically transmissive substrate, wherein the photomask is a gradient photomask that comprises a region of low light transmission and a region of high light transmission with an increasing light transmission from the region of low light transmission to the region of high light transmission. exposing a separation medium precursor solution to light from a light source through a photomask comprising a semi-transparent region with varied light transmittance to produce the separation medium, wherein the photomask includes a grid pattern of an opaque material on a surface of an optically transmissive substrate, wherein the photomask is a gradient photomask that comprises a region of low light transmission and a region of high light transmission with an increasing light transmission from the region of low light transmission to the region of high light transmission.
A bioabsorbable coating on an implantable medical device, comprising a primer layer comprising a bioabsorbable polymer having a first molecular weight and a second layer comprising a bioabsorbable polymer of a second molecular weight, wherein the first molecular weight is higher than the second molecular weight, and wherein the primer layer comprises a high molecular weight absorbable polymer of a molecular weight from 60,000 Daltons and below 200,000 Daltons or very high molecular weight (VHMW) absorbable polymer of a molecular weight 200,000 Daltons or above; wherein the HMW and VHMW absorbable polymer are selected from PLLA, 85/15 PLGA, 75/25 PLGA, poly(ester amide), PLA-PCL-GA terpolymer, and PCL-GA, wherein the second layer comprises a low molecular weight absorbable polymer of a molecular weight below 60,000 Daltons; wherein the LMW absorbable polymer is LMW D,L-PLA; and wherein the coating is completely or substantially completely absorbed upon implantation in a human body within a period from 3 months to 6 months.
Method of reducing the content of NO x and N 2 O in gases, which comprises the measures: a) passage of the N 2 O- and NO x -containing gas over two catalyst beds of which the first containing a catalyst for the decomposition of N 2 O into nitrogen and oxygen and the second catalyst bed containing a catalyst for the chemical reaction of NO x and N 2 O with a reducing agent, b) selection of temperature, pressure and space velocity in the first catalyst bed so that the decrease in the N 2 O content of the gas occurring in this is not more than 95%, based on the N 2 O content at the entrance of the first catalyst bed, and c) addition of a reducing agent for NO x and a reducing agent for N 2 O between the first and second catalyst beds in an amount sufficient for chemical removal of all of the NO x and at least 50% of the N 2 O, based on the N 2 O content at the entrance of the second catalyst bed, wherein ammonia is used as reducing agent for NO x and as reducing agent for N 2 O. a) passage of the N 2 O- and NO x -containing gas over two catalyst beds of which the first containing a catalyst for the decomposition of N 2 O into nitrogen and oxygen and the second catalyst bed containing a catalyst for the chemical reaction of NO x and N 2 O with a reducing agent, b) selection of temperature, pressure and space velocity in the first catalyst bed so that the decrease in the N 2 O content of the gas occurring in this is not more than 95%, based on the N 2 O content at the entrance of the first catalyst bed, and c) addition of a reducing agent for NO x and a reducing agent for N 2 O between the first and second catalyst beds in an amount sufficient for chemical removal of all of the NO x and at least 50% of the N 2 O, based on the N 2 O content at the entrance of the second catalyst bed, wherein
An antenna for vehicles, comprising: a main ground formed on a printed circuit board; a first LTE antenna; a second LTE antenna; a first LTE antenna ground connected to the main ground so as to ground a signal of the first LTE antenna; and a second LTE antenna ground (91, 92) connected to the main ground so as to ground a signal of the second LTE antenna, characterized by a current path unit configured to electrically connect the second LTE antenna ground (91, 92) to the main ground, wherein the current path unit is formed to a length of a quarter of a wavelength of an operation frequency, and wherein the first LTE antenna ground is integrated with the main ground. a main ground formed on a printed circuit board; a first LTE antenna; a second LTE antenna; a first LTE antenna ground connected to the main ground so as to ground a signal of the first LTE antenna; and a second LTE antenna ground (91, 92) connected to the main ground so as to ground a signal of the second LTE antenna, characterized by a current path unit configured to electrically connect the second LTE antenna ground (91, 92) to the main ground, wherein the current path unit is formed to a length of a quarter of a wavelength of an operation frequency, and wherein the first LTE antenna ground is integrated with the main ground.
A compound, wherein a structural formula of the compound is represented as the following formula I: wherein: R represents one of a cyclopropyl group, a cyclopentyl group, and a 2-tetrahydrofuryl group; Z represents one of a single bond, -CH 2 -, -O-, -CH 2 CH 2 -, -CH 2 O-, -CF 2 O-, and -COO-; and X represents one of H, F, an alkyl group having 1-7 carbon atoms, and an alkoxy group having 1-7 carbon atoms, wherein in the alkyl group having 1-7 carbon atoms and the alkoxy group having 1-7 carbon atoms, one or more H atoms can be substituted by F. R represents one of a cyclopropyl group, a cyclopentyl group, and a 2-tetrahydrofuryl group; Z represents one of a single bond, -CH 2 -, -O-, -CH 2 CH 2 -, -CH 2 O-, -CF 2 O-, and -COO-; and X represents one of H, F, an alkyl group having 1-7 carbon atoms, and an alkoxy group having 1-7 carbon atoms, wherein in the alkyl group having 1-7 carbon atoms and the alkoxy group having 1-7 carbon atoms, one or more H atoms can be substituted by F.
A sample analysis system interacting with one or more receptacles (220, 320) to receive, transfer, transform, or analyze a sample, the sample analysis system comprising: at least two stations; a carrier for transporting at least one receptacle (220, 320) between the at least two stations; a hollow probe for aspirating and/or dispensing fluid from/into the at least one receptacle (220, 320) when the at least one receptacle (220, 320) is at a probe receiving station of the at least two stations, the hollow probe movable along a probe path; wherein the hollow probe and the probe path are continuously aligned with the probe receiving station; a probe washer for cleaning the hollow probe, the probe washer moveable between at least a first position and a second position; wherein when the probe washer is at the first position, the probe path clears the probe washer and thereby allows the hollow probe to travel past the probe washer to the receptacle (220, 320) at the probe receiving station; and wherein when the probe washer is at the second position, the probe washer intersects the probe path for the hollow probe to travel into the probe washer. at least two stations; a carrier for transporting at least one receptacle (220, 320) between the at least two stations; a hollow probe for aspirating and/or dispensing fluid from/into the at least one receptacle (220, 320) when the at least one receptacle (220, 320) is at a probe receiving station of the at least two stations, the hollow probe movable along a probe path; wherein the hollow probe and the probe path are continuously aligned with the probe receiving station; a probe washer for cleaning the hollow probe, the probe washer moveable between at least a first position and a second position; wherein when the probe washer is at the first position, the probe path clears the probe washer and thereby allows the hollow probe to travel past the probe washer to the receptacle (220, 320) at the probe receiving station; and wherein when the probe washer is at the second position, the probe washer intersects the probe path for the hollow probe to travel into the probe washer.
A method for producing Metal Organic Framework having a framework that encapsulates a bio-molecule, the method comprising combining in a solution the bio-molecule and MOF precursors, wherein the MOF precursors comprise a metal ion and an organic ligand, the organic ligand having at least two groups selected from the group consisting of carboxylate groups, phosphonate groups, sulfonate groups, N-heterocyclic groups, and combinations thereof, and the bio-molecule (i) is selected from the group consisting of a protein, a peptide, a nucleic acid, an amino acid, and combinations thereof, and (ii) promotes formation of the encapsulating framework such that the bio-molecule sits within the framework as a heterogeneous and discontinuous guest phase within a self-defined cavity. the MOF precursors comprise a metal ion and an organic ligand, the organic ligand having at least two groups selected from the group consisting of carboxylate groups, phosphonate groups, sulfonate groups, N-heterocyclic groups, and combinations thereof, and the bio-molecule (i) is selected from the group consisting of a protein, a peptide, a nucleic acid, an amino acid, and combinations thereof, and (ii) promotes formation of the encapsulating framework such that the bio-molecule sits within the framework as a heterogeneous and discontinuous guest phase within a self-defined cavity. (i) is selected from the group consisting of a protein, a peptide, a nucleic acid, an amino acid, and combinations thereof, and (ii) promotes formation of the encapsulating framework such that the bio-molecule sits within the framework as a heterogeneous and discontinuous guest phase within a self-defined cavity.
A direct resistance heating method comprising: placing a first electrode and a second electrode such that a space is provided between the first electrode and the second electrode and such that each of the first electrode and the second electrode extends across a heating target region of a workpiece (w); moving at least one of the first electrode and the second electrode with an electric current being applied between the first electrode and the second electrode; and adjusting a time during which the electric current is applied for each segment region of the heating target region, wherein the segment regions are defined by dividing the heating target region and are arranged side by side along a direction in which the at least one of the first electrode and the second electrode is moved, characterized in that, with the electric current applied between the first electrode and the second electrode being constant, the first electrode is moved without moving the second electrode to widen the space between the first electrode and the second electrode, and before the first electrode reaches an end of the heating target region, the second electrode is moved in a direction opposite to the direction in which the first electrode is moved, thereby heating the heating target region such that the heating target region is divided into a high temperature region and a low temperature region. placing a first electrode and a second electrode such that a space is provided between the first electrode and the second electrode and such that each of the first electrode and the second electrode extends across a heating target region of a workpiece (w); moving at least one of the first electrode and the second electrode with an electric current being applied between the first electrode and the second electrode; and adjusting a time during which the electric current is applied for each segment region of the heating target region, wherein the segment regions are defined by dividing the heating target region and are arranged side by side along a direction in which the at least one of the first electrode and the second electrode is moved, characterized in that, with the electric current applied between the first electrode and the second electrode being constant, the first electrode is moved without moving the second electrode to widen the space between the first electrode and the second electrode, and before the first electrode reaches an end of the heating target region, the second electrode is moved in a direction opposite to the direction in which the first electrode is moved, thereby heating the heating target region such that the heating target region is divided into a high temperature region and a low temperature region.
Sealing ring designed to seal in an axially clamped state, comprising: an annular sealing element which has a first material with a first linear thermal expansion coefficient α 1, an annular guide arrangement, which defines at least a radial barrier for an equatorial annular surface of a volume which the sealing element can occupy, wherein the extent of the equatorial annular surface has an effective area thermal expansion coefficient β which is more than twice, in particular not more than two and a half times, the first linear thermal expansion coefficient, such that an effective axial thermal expansion coefficient of the annular sealing element is smaller than the first linear thermal expansion coefficient, particularly is not more than half the first linear expansion coefficient, preferably not more than 30 ppm/K and particularly preferably not more than 20 ppm/K. an annular sealing element which has a first material with a first linear thermal expansion coefficient α 1, an annular guide arrangement, which defines at least a radial barrier for an equatorial annular surface of a volume which the sealing element can occupy, wherein the extent of the equatorial annular surface has an effective area thermal expansion coefficient β which is more than twice, in particular not more than two and a half times, the first linear thermal expansion coefficient, such that an effective axial thermal expansion coefficient of the annular sealing element is smaller than the first linear thermal expansion coefficient, particularly is not more than half the first linear expansion coefficient, preferably not more than 30 ppm/K and particularly preferably not more than 20 ppm/K.
A machine, comprising: at least two magnetic radial bearings (1220, 1240, 3000, 5120, 5140) configured to magnetically levitate a rotating shaft (1800, 3300, 4400), each of said at least two magnetic radial bearings comprising at least three stator magnet groups, each of said at least three stator magnet groups comprising at least three stator magnets that are substantially uniformly distributed around a longitudinal axis of said rotating shaft, no pair of said at least three stator magnets separated by 180 degrees measured about said longitudinal axis, and each of said at least three stator magnet groups being operatively configured to fully support said rotating shaft independently of each other stator magnet group of said at least three stator magnet groups. at least two magnetic radial bearings (1220, 1240, 3000, 5120, 5140) configured to magnetically levitate a rotating shaft (1800, 3300, 4400), each of said at least two magnetic radial bearings comprising at least three stator magnet groups, each of said at least three stator magnet groups comprising at least three stator magnets that are substantially uniformly distributed around a longitudinal axis of said rotating shaft, no pair of said at least three stator magnets separated by 180 degrees measured about said longitudinal axis, and each of said at least three stator magnet groups being operatively configured to fully support said rotating shaft independently of each other stator magnet group of said at least three stator magnet groups.
Arrangement for checking a tightness of a container, comprising: - a test compartment in which the container to be tested can be arranged, - a pressure changing device to change a pressure in the test compartment relative to a pressure in the container, - a differential pressure sensor for determining a pressure difference between a reference pressure in a reference chamber and a pressure in the test compartment, characterized by - a valve comprising a closing element, a first sealing seat, and a second sealing seat, the first sealing seat comprising a first sealing element (11, 21) for sealing the test compartment with respect to a pre-chamber and the second sealing seat comprising a second sealing element (12, 22) for sealing the reference chamber with respect to the pre-chamber. - a test compartment in which the container to be tested can be arranged, - a pressure changing device to change a pressure in the test compartment relative to a pressure in the container, - a differential pressure sensor for determining a pressure difference between a reference pressure in a reference chamber and a pressure in the test compartment, - a valve comprising a closing element, a first sealing seat, and a second sealing seat, the first sealing seat comprising a first sealing element (11, 21) for sealing the test compartment with respect to a pre-chamber and the second sealing seat comprising a second sealing element (12, 22) for sealing the reference chamber with respect to the pre-chamber.