mhurhangee/ep-ind-claims huggingface dataset:
An antenna support for incorporating in an electronic document, the support comprising: • a first substrate made of plastics material, being defined by first and second opposite faces (30a, 30b) defining between them a thickness of the substrate; • an antenna comprising at least one turn that extends between two ends (26b, 26c), the antenna being formed by a wire that is inlaid in the thickness of the first substrate from the first face, each of the two ends (26b, 26c) presenting a zigzag shape formed by at least two rectilinear portions and by two bends; characterized in that the bends are inlaid more deeply than the rectilinear portions in the thickness of the first substrate from the first face. • a first substrate made of plastics material, being defined by first and second opposite faces (30a, 30b) defining between them a thickness of the substrate; • an antenna comprising at least one turn that extends between two ends (26b, 26c), the antenna being formed by a wire that is inlaid in the thickness of the first substrate from the first face, each of the two ends (26b, 26c) presenting a zigzag shape formed by at least two rectilinear portions and by two bends;
A harvester front attachment for a self-propelled harvesting machine, with a harvesting unit for cutting and collecting parts of a plant crop to be harvested which are at a distance from the ground, and a shredding unit for shredding parts of the plant crop which are close to the ground and which are not collected by the harvesting unit, which comprises at least one underfloor chopper that is movably coupled to the harvesting unit, surrounded by a housing (12 - 14) and supported on the ground during operation, characterized in that the underfloor chopper is supported on the ground by a dome which is driven in rotation about an axis of rotation, which in particular is vertical, and which carries at its periphery a plurality of shredding elements which revolve about the axis of rotation.
A connection comprising: a first profile having a first end, the first profile comprising a first thermoset material; and a second profile having a second end, the second profile comprising a second thermoset material, wherein the first end and the second end are coincidently bonded without a bonding material at an interface of the first end and the second end via surface activation treatment to form a coincident and sterile bond. a first profile having a first end, the first profile comprising a first thermoset material; and a second profile having a second end, the second profile comprising a second thermoset material, wherein the first end and the second end are coincidently bonded without a bonding material at an interface of the first end and the second end via surface activation treatment to form a coincident and sterile bond.
A surface hardening process for an aluminum alloy mould of a bottle blowing machine, comprising steps of: (a) polishing a surface of a cavity of the aluminum alloy mould, and putting the polished aluminum alloy mould into an oxidation tank containing an electrolyte to perform a hard anodic oxidation treatment, wherein an oxidation layer is formed on the surface of the cavity of the aluminum alloy mould after the oxidation treatment, wherein the hard anodic oxidation treatment utilizes an oxidation electric current superposed by an alternating current, a direct current and a pulse current, wherein a current density of the alternating current is 0.5-3.5 A/dm 2 and a current density of the direct current is 0.2-4.5 A/dm 2, a frequency of the pulse current is 40-60 Hz, and a duty cycle of the pulse current is 20-60%, the electrolyte being a mixed solution including an inorganic acid and an organic acid; (b) coating a grease film on the parting line at an edge of the cavity of the aluminum alloy mould after the oxidation treatment; and (c) polishing the surface of the cavity of the aluminum alloy mould after the oxidation treatment. (a) polishing a surface of a cavity of the aluminum alloy mould, and putting the polished aluminum alloy mould into an oxidation tank containing an electrolyte to perform a hard anodic oxidation treatment, wherein an oxidation layer is formed on the surface of the cavity of the aluminum alloy mould after the oxidation treatment, wherein the hard anodic oxidation treatment utilizes an oxidation electric current superposed by an alternating current, a direct current and a pulse current, wherein a current density of the alternating current is 0.5-3.5 A/dm 2 and a current density of the direct current is 0.2-4.5 A/dm 2, a frequency of the pulse current is 40-60 Hz, and a duty cycle of the pulse current is 20-60%, the electrolyte being a mixed solution including an inorganic acid and an organic acid; (b) coating a grease film on the parting line at an edge of the cavity of the aluminum alloy mould after the oxidation treatment; and (c) polishing the surface of the cavity of the aluminum alloy mould after the oxidation treatment.
An image processing device comprising: - a data input for receiving spectral computed tomography volumetric image data organized in voxels, said volumetric image data comprising a contrast-enhanced volumetric image of a cardiac region in a subject's body and a baseline volumetric image of said cardiac region, wherein said baseline volumetric image conveys baseline anatomical information of the subject and said contrast-enhanced volumetric image conveys anatomical information regarding coronary artery anatomy of the subject; - a flow simulator for generating, or receiving as input, a three-dimensional coronary tree model based on said volumetric image data and for simulating a coronary flow based on said three-dimensional coronary tree model; and - a perfusion synthesis unit for generating a time sequence of perfusion images representative of a blood distribution in tissue at different instants in time in accordance with said coronary flow simulation and using said baseline volumetric image as reference for perfusion synthesis. - a data input for receiving spectral computed tomography volumetric image data organized in voxels, said volumetric image data comprising a contrast-enhanced volumetric image of a cardiac region in a subject's body and a baseline volumetric image of said cardiac region, wherein said baseline volumetric image conveys baseline anatomical information of the subject and said contrast-enhanced volumetric image conveys anatomical information regarding coronary artery anatomy of the subject; - a flow simulator for generating, or receiving as input, a three-dimensional coronary tree model based on said volumetric image data and for simulating a coronary flow based on said three-dimensional coronary tree model; and - a perfusion synthesis unit for generating a time sequence of perfusion images representative of a blood distribution in tissue at different instants in time in accordance with said coronary flow simulation and using said baseline volumetric image as reference for perfusion synthesis.
A microfluidic chip for thermalization with variable temperature cycles, said chip comprising a block of material in which are arranged successively: - a fluid injection zone comprising at least two microfluidic fluid injection channels (4, 5), - a parallelepiped-shaped cavity having an upper face comprising a heat exchange zone provided with a thermalization zone having a surface S at the upper face of the cavity, the thermalization zone comprising at least one microfluidic channel for fluid circulation, this cavity being provided with at least one fluid inlet orifice from the fluid injection zone and at least one fluid outlet orifice, between which the heat exchange zone extends, preferably a single fluid inlet orifice, preferably a single fluid outlet orifice, characterized in that it further comprises at least one microfluidic channel (6, 7) for bypassing the cavity, connected at a first end to at least one of the microfluidic fluid injection channels (4, 5), the junction (8, 9) of the bypass channel (6, 7) on the fluid injection channel (4, 5) being located at a distance L from the fluid inlet orifice of the thermalization zone, the distance L between each junction (8, 9) and the fluid inlet orifice being such that: L < S / a S being the surface of the thermalization zone of the upper face of the cavity in m2 a being a correction coefficient equal to 0.005m. - a fluid injection zone comprising at least two microfluidic fluid injection channels (4, 5), - a parallelepiped-shaped cavity having an upper face comprising a heat exchange zone provided with a thermalization zone having a surface S at the upper face of the cavity, the thermalization zone comprising at least one microfluidic channel for fluid circulation, this cavity being provided with at least one fluid inlet orifice from the fluid injection zone and at least one fluid outlet orifice, between which the heat exchange zone extends, preferably a single fluid inlet orifice, preferably a single fluid outlet orifice, characterized in that it further comprises at least one microfluidic channel (6, 7) for bypassing the cavity, connected at a first end to at least one of the microfluidic fluid injection channels (4, 5), the junction (8, 9) of the bypass channel (6, 7) on the fluid injection channel (4, 5) being located at a distance L from the fluid inlet orifice of the thermalization zone, the distance L between each junction (8, 9) and the fluid inlet orifice being such that: L < S / a S being the surface of the thermalization zone of the upper face of the cavity in m2 a being a correction coefficient equal to 0.005m.
Object comprising a polymer coating, the coating comprising: a) one or more polymers, said polymers comprising a first cleavage site and b) a first agent releasable from said coating upon cleavage of said first cleavage site characterized in that the first agent is covalently bound to a first polymer comprising polyethylene glycol via a first linker, the first linker comprising the first cleavage site being a peptide, wherein the first cleavage site is cleaved by a sortase enzyme specifically provided by a microbe belonging to a first group consisting of Gram positive bacteria, and not cleaved by any compound provided by any microbe not belonging to said first group, wherein cleavage of the said first cleavage site results in release of the said first agent from the coating, the release of said first agent being indicative for the presence of a microbe belonging to the said first group wherein the first linker comprises a peptide. wherein the first agent is a diagnostic agent being a fluorescent agent, wherein the object is a medical implant. a) one or more polymers, said polymers comprising a first cleavage site and b) a first agent releasable from said coating upon cleavage of said first cleavage site characterized in that the first agent is covalently bound to a first polymer comprising polyethylene glycol via a first linker, the first linker comprising the first cleavage site being a peptide, wherein
An inorganic nutrient composition comprising at least one aqueous phase, at least one polyphosphate and at least one source of iron as micronutrient, the said nutrient composition having a P poly /Fe molar ratio of between 5 and 50 where P poly is a total number of moles of phosphorus in polyphosphate form and where Fe is a total number of moles of iron, characterized in that the said inorganic nutrient composition comprising at least one aqueous phase is in the form of an aqueous solution in which the iron of the said iron source is complexed to the said at least one polyphosphate, and in that it also has a molar ratio N/P total of 0.2 or lower, where N is the number of moles of ammonium and where P total is the number of moles of total phosphorus.
An article, especially a cooktop or furniture element, comprising at least one substrate made of glass-ceramic, said substrate being coated in at least one zone with a paint comprising at least: - 1) a silicone resin comprising methyl and phenyl groups, - 2) a silicone resin comprising methyl group(s) and devoid of phenyl group(s), - 3) one or more lamellar inorganic fillers with a thickness of less than 2 μm and with lateral dimensions, for at least 80% by weight of said fillers, of less than 10 μm, including talc and/or one or more carbonates, - 4) one or more black pigments. - 1) a silicone resin comprising methyl and phenyl groups, - 2) a silicone resin comprising methyl group(s) and devoid of phenyl group(s), - 3) one or more lamellar inorganic fillers with a thickness of less than 2 μm and with lateral dimensions, for at least 80% by weight of said fillers, of less than 10 μm, including talc and/or one or more carbonates, - 4) one or more black pigments.
A data transmission method, comprising: compressing an original Radio Resource Control, RRC, message when determining that a length of the original RRC message exceeds a preset threshold; packaging a compressed RRC message into a Packet Data Convergence Protocol, PDCP, Protocol Data Unit, PDU; and sending the packaged PDCP PDU to a receiving end; characterized in that, header information of the packaged PDCP PDU comprises a first preset field, and the first preset field is for indicating whether an RRC message in the packaged PDCP PDU is the compressed RRC message; and wherein the header information of the packaged PDCP PDU comprises a second preset field, and the second preset field is for indicating a compression algorithm used for compressing the original RRC message. compressing an original Radio Resource Control, RRC, message when determining that a length of the original RRC message exceeds a preset threshold; packaging a compressed RRC message into a Packet Data Convergence Protocol, PDCP, Protocol Data Unit, PDU; and sending the packaged PDCP PDU to a receiving end; characterized in that, header information of the packaged PDCP PDU comprises a first preset field, and the first preset field is for indicating whether an RRC message in the packaged PDCP PDU is the compressed RRC message; and wherein the header information of the packaged PDCP PDU comprises a second preset field, and the second preset field is for indicating a compression algorithm used for compressing the original RRC message.
Cutting machine for strand-shaped foods having a cutting blade driven via a drive motor and a machine housing in which the drive motor is accommodated, wherein a surface of the cutting machine has a coating, characterized in that the coating has oxide ceramic and polytetrafluoroethylene as constituents, and in that the cutting machine has a slide bearing (34, 36) made from interacting sliding surfaces (37a, 38a, 37b, 38b), wherein at least one of the interacting sliding surfaces has the coating.
An interrogation cell, comprising: a source of electromagnetic radiation at a first position, the source of electromagnetic radiation configured to emit electromagnetic radiation at one or more wavelengths; a sample region; and a detector at a second position, the detector configured to receive electromagnetic radiation that traverses at least a portion of the sample region, characterized in that the interrogation cell is dimensioned for positioning in a rotor cavity of a centrifuge rotor. a source of electromagnetic radiation at a first position, the source of electromagnetic radiation configured to emit electromagnetic radiation at one or more wavelengths; a sample region; and a detector at a second position, the detector configured to receive electromagnetic radiation that traverses at least a portion of the sample region, characterized in that the interrogation cell is dimensioned for positioning in a rotor cavity of a centrifuge rotor.
A method for operating a spinning machine, particularly an open-end spinning machine, having a plurality of workstations disposed adjacent to each other, each of the workstations comprising an infeed device for a fiber material, a spinning device having spinning means for spinning the fiber material into a thread, and a take-off device for taking off the thread, characterized in that a precision measurement head is disposed at at least one of the workstations for detecting the quality of the thread, that batch-related, optimized spinning means are determined at the beginning of a new yarn batch at the at least one workstation, wherein at least one quality parameter of the thread is captured by means of the precision measuring head for determining the optimized spinning means, and as a function of a captured value of the at least one quality parameter, the spinning means are selected and placed in the spinning device, and that a type of the optimized spinning means thus determined is transferred by means of a controller to further workstations of the spinning machine processing the same yarn batch. that batch-related, optimized spinning means are determined at the beginning of a new yarn batch at the at least one workstation, wherein at least one quality parameter of the thread is captured by means of the precision measuring head for determining the optimized spinning means, and as a function of a captured value of the at least one quality parameter, the spinning means are selected and placed in the spinning device, and that a type of the optimized spinning means thus determined is transferred by means of a controller to further workstations of the spinning machine processing the same yarn batch.
A display including: - a plurality of light sources configured to emit light beams; - a plurality of optical cores having an elongated shape, each optical core having a respective first end, which is optically coupled to a corresponding light source, each optical core being further configured so that, in use, the light beam emitted from the corresponding light source propagates in a guided manner inside the optical core; and - a screen, each optical core having a respective second end, which is optically coupled to said screen; said display further comprising an optical separation element, which forms a plurality of cavities that house corresponding optical cores, each cavity and the corresponding optical core forming a corresponding gap, said corresponding gap and said corresponding optical core forming a waveguide; and wherein said optical separation element is configured to absorb visible light and laterally surrounds at least the first end of each optical core; said display being characterized in that it further comprises a supporting structure, which has a planar shape and forms a single piece with the optical cores, the first ends of which are connected to the supporting structure, said supporting structure being optically coupled to the light sources. - a plurality of light sources configured to emit light beams; - a plurality of optical cores having an elongated shape, each optical core having a respective first end, which is optically coupled to a corresponding light source, each optical core being further configured so that, in use, the light beam emitted from the corresponding light source propagates in a guided manner inside the optical core; and - a screen, each optical core having a respective second end, which is optically coupled to said screen;
A current-voltage converter (22; 122; 222) with a current reflector, the input current comprising a fixed component and a variable component, the converter comprising: - an input for the current to be converted; - an output for the converted voltage; - two constant current sources (40, 42) each connected between the output and a respective reference voltage (32, 34); - at least one MOSFET transistor (44A, 46A), mounted in series with each constant current source (40, 42), and the gate of which is connected to one of the reference voltages (32, 34); and - a resistor for converting the current into a voltage, arranged between the output and the ground, the input for the current to be converted being connected to the output through one of the MOSFET transistors; characterized in that it comprises, for each MOSFET transistor (44A, 46A), means (150, 154, 152, 156; 244, 246, 250) for re-injecting into at least one of the current sources (40, 42), a current equal to the current absorbed in the gates of the MOSFET transistors (44A, 46A). - an input for the current to be converted; - an output for the converted voltage; - two constant current sources (40, 42) each connected between the output and a respective reference voltage (32, 34); - at least one MOSFET transistor (44A, 46A), mounted in series with each constant current source (40, 42), and the gate of which is connected to one of the reference voltages (32, 34); and - a resistor for converting the current into a voltage, arranged between the output and the ground, the input for the current to be converted being connected to the output through one of the MOSFET transistors;
An electrochemical cell, comprising: a) an anode including a form of lithium metal; b) an OH- exchange membrane; c) a precipitate reservoir in fluid communication with the anode and the OH-exchange membrane; d) an O 2 evolution electrode extending out of the precipitate reservoir; and e) a fluid reservoir in fluid communication with the precipitate reservoir, wherein the fluid reservoir includes a form of water when the electrochemical cell is fully charged; and f) wherein the cell is provided with an amount of water, and an amount of lithium metal in the anode such that the ratio of the amount of water to the amount of lithium metal when the cell is fully charged is about 0.68 mole H20/mole Li 1. a) an anode including a form of lithium metal; b) an OH- exchange membrane; c) a precipitate reservoir in fluid communication with the anode and the OH-exchange membrane; d) an O 2 evolution electrode extending out of the precipitate reservoir; and e) a fluid reservoir in fluid communication with the precipitate reservoir, wherein the fluid reservoir includes a form of water when the electrochemical cell is fully charged; and f) wherein the cell is provided with an amount of water, and an amount of lithium metal in the anode such that the ratio of the amount of water to the amount of lithium metal when the cell is fully charged is about 0.68 mole H20/mole Li 1.
A nonwoven fiber mat for reinforcing a plate or electrode of a lead-acid battery, the nonwoven fiber mat comprising: a plurality of glass fibers; an acid resistant binder that couples the plurality of glass fibers together to form the nonwoven fiber mat; and a wetting component applied to the nonwoven fiber mat to increase the wettability of the nonwoven fiber mat such that the nonwoven fiber mat has or exhibits an average water wick height of at least 0.5 cm after exposure to water for 10 minutes conducted according to method ISO8787, wherein the wetting component is dissolvable in an acid solution of the lead-acid battery such that a significant portion of the nonwoven fiber mat is lost due to dissolving of the wetting component. a plurality of glass fibers; an acid resistant binder that couples the plurality of glass fibers together to form the nonwoven fiber mat; and a wetting component applied to the nonwoven fiber mat to increase the wettability of the nonwoven fiber mat such that the nonwoven fiber mat has or exhibits an average water wick height of at least 0.5 cm after exposure to water for 10 minutes conducted according to method ISO8787, wherein the wetting component is dissolvable in an acid solution of the lead-acid battery such that a significant portion of the nonwoven fiber mat is lost due to dissolving of the wetting component.
An ophthalmic composition comprising at least one component selected from the group consisting of crocetin and its pharmaceutically acceptable salts, for use in the prevention or treatment of myopia.