mhurhangee/ep-ind-claims huggingface dataset:
Power plant for generating electrical power, having - a reformer unit, in which an energy carrier can be converted, with the supply of heat, into a combustion fluid, - a reformer burning device, in which, to provide a heat supply for the reformer unit, an energy carrier can be burned, and - a power generator, which is configured to burn a combustion fluid and generate electrical power with it, - an electric heating unit, through which electrical energy can be converted into heat energy, characterised in that - a heat storage system is provided, in which heat energy emitted by the electric heating unit can be stored, - a heat exchanger is provided for the purpose of transferring heat of the heat storage system to a fluid flowing through the heat exchanger, - a connection line is provided, which conveys the fluid from the heat exchanger to the reformer burning device, or the heat storage system is a latent heat storage system, with the heat exchanger heat energy can be transferred from the latent heat storage system to a heat carrier fluid, and heat transport means are provided and configured to use heat energy of the heat carrier fluid for the heat supply to the reformer unit. - a reformer unit, in which an energy carrier can be converted, with the supply of heat, into a combustion fluid, - a reformer burning device, in which, to provide a heat supply for the reformer unit, an energy carrier can be burned, and - a power generator, which is configured to burn a combustion fluid and generate electrical power with it, - an electric heating unit, through which electrical energy can be converted into heat energy, characterised in that - a heat storage system is provided, in which heat energy emitted by the electric heating unit can be stored, - a heat exchanger is provided for the purpose of transferring heat of the heat storage system to a fluid flowing through the heat exchanger, - a connection line is provided, which conveys the fluid from the heat exchanger to the reformer burning device, or the heat storage system is a latent heat storage system, with the heat exchanger heat energy can be transferred from the latent heat storage system to a heat carrier fluid, and heat transport means are provided and configured to use heat energy of the heat carrier fluid for the heat supply to the reformer unit.
An organic-inorganic hybrid polymer dot comprising: an organic network comprising a semiconducting chromophoric polymer; and an inorganic network, wherein the semiconducting chromophoric polymer and the inorganic network form an organic-inorganic interpenetrated network through the physical association of the organic network and the inorganic network, and wherein said physical association comprises hydrophobic interaction; and wherein there is no covalent bonding between the organic network and the inorganic network. an organic network comprising a semiconducting chromophoric polymer; and an inorganic network, wherein the semiconducting chromophoric polymer and the inorganic network form an organic-inorganic interpenetrated network through the physical association of the organic network and the inorganic network, and wherein said physical association comprises hydrophobic interaction; and wherein there is no covalent bonding between the organic network and the inorganic network.
Hydraulic motor with a central sub-assembly (a), adapted to be associated to toothed gears of at least a lateral sub-assembly (b), to transmit torque to a driven gear, said central sub-assembly (a) comprising a planet carrier body including: - three or more planet driving shafts arranged in a planetary position with respect to the driven gear (b11,b22) and eccentrically supported; - fixed caps also arranged in a planetary position with respect to the driven gear (b11,b22) and alternating with the planet driving shafts; and - at least two cylinders (a2, a3) for each planet driving shaft, said cylinders (a2, a3) being arranged in a tangential position with respect to the rotation axis of the driven gear, each cylinder (a2, a3) acting on a planet driving shaft and on a fixed cap, wherein said planet carrier body houses, in the inner annular part thereof, holes for the hydraulic distribution that lead a hydraulic propelling fluid to the fixed caps and, from said fixed caps, to the cylinders (a2, a3), which effect is the generation of a thrust in the direction of the axis of the cylinders (a2, a3) which, by reacting on fixed caps, produces a torque on the planet driving shafts, wherein said at least a lateral sub-assembly comprises devices (b12, c51) adapted for the hydraulic distribution of the hydraulic propelling fluid from a feeding or discharge duct to said holes of the planet carrier body, and wherein said devices (b12, c51) adapted for the hydraulic distribution are at least partially rotatory with respect to the planet carrier body characterised in that the at least one central sub-assembly (a) and the at least one lateral sub-assembly (b) are disposed laterally in axial direction. - three or more planet driving shafts arranged in a planetary position with respect to the driven gear (b11,b22) and eccentrically supported; - fixed caps also arranged in a planetary position with respect to the driven gear (b11,b22) and alternating with the planet driving shafts; and - at least two cylinders (a2, a3) for each planet driving shaft, said cylinders (a2, a3) being arranged in a tangential position with respect to the rotation axis of the driven gear, each cylinder (a2, a3) acting on a planet driving shaft and on a fixed cap,
A method for applying a reinforcement of metal material to a component of metal material, particularly in the construction of a motor-vehicle body or a sub-assembly thereof, wherein said method comprises the step of applying a reinforcement of metal material above said component using additive manufacturing technology, said method being characterized in that said step of applying a reinforcement by additive manufacturing technology comprises a first step for applying a coarse base cladding and a second step for applying a fine cladding including a distribution of stiffening micro-ribs.
Casing for an intake module, in particular for a motor vehicle combustion engine intake module, the said casing being able to accommodate a heat exchange bundle, the said casing comprising a first inlet for intake gases, termed inlet for the intake gases to be cooled, and another inlet for the said intake gases, termed inlet for the non-cooled intake gases, the said casing comprising an outlet box and being configured so that the intake gases, entering through the inlet for the intake gases to be cooled, pass through the bundle to emerge in the outlet box, the said casing additionally comprising an inlet for recirculated exhaust gases and a distribution duct opening into the said outlet box, in communication with the inlet for the non-cooled intake gases and the inlet for the recirculated exhaust gases, characterized in that the distribution duct places the said inlet for the non-cooled gases and the said inlet for the recirculated exhaust gases in communication with the said outlet box so as to produce a common inlet for the non-cooled intake gases and the recirculated exhaust gases.
Chromogenic peptides (PCB-aa), consisting of an amino acid sequence of between 3 and 6 amino acids and comprising a phycocyanobilin structure, characterized in that the amino acid sequence is selected from the group consisting of the sequences identified as SEQ ID NO. 3- SEQ ID NO. 5.
An electrode structure comprising: an electrode comprising an active material-containing layer; and a separator comprising a layer provided on a main surface of the active material-containing layer, wherein the layer comprises organic fibers and a resin mass, the resin mass is integrated with a portion of the organic fibers and comprises a binding point that is in direct contact with the active material-containing layer, and when a length of the resin mass is represented by a circumscribed quadrilateral of the resin mass, a length of a first side of the circumscribed quadrilateral and a length of a second side adjacent to the first side, as determined with a digital microscope, are each 10 μm or more, characterized in that a thickness of the layer is 0.3 μm or more and 50 μm or less. an electrode comprising an active material-containing layer; and a separator comprising a layer provided on a main surface of the active material-containing layer, wherein the layer comprises organic fibers and a resin mass, the resin mass is integrated with a portion of the organic fibers and comprises a binding point that is in direct contact with the active material-containing layer, and when a length of the resin mass is represented by a circumscribed quadrilateral of the resin mass, a length of a first side of the circumscribed quadrilateral and a length of a second side adjacent to the first side, as determined with a digital microscope, are each 10 μm or more, characterized in that a thickness of the layer is 0.3 μm or more and 50 μm or less.
An integrated sputtering target comprising a target portion and a backing plate portion, both of them being made of copper and unavoidable impurities, wherein a Vickers hardness Hv is 90 or more, and wherein a flat ratio of crystal grains in a cross section orthogonal to a sputtering surface to be used for sputtering is 0.35 or more and 0.65 or less. The flat ratio is determined using an optical microscope as follows: total four arbitrary straight lines, two straight lines in each of a target thickness direction and a direction perpendicular to the target thickness direction of the crystal grains observed in the cross section, are drawn, and the number of grain boundaries intersecting the straight lines are counted to measure an average grain size in the target thickness direction and an average grain size in the direction perpendicular to the target thickness direction; and then, when the average grain size in the target thickness direction is defined as a short side and the average grain size in the direction perpendicular to the target thickness direction is defined as a long side, the flat ratio is calculated from the equation: flat ratio = (1 - short side / long side).
A multilayer optical film comprising: alternating first and second optical layers, the first optical layer comprising a first polyester derived from first carboxylate monomers and first diol monomers, the first carboxylate monomers comprising from 5 to 50 mol % of 4,4'-biphenyl dicarboxylate, wherein the first and second optical layers have refractive indices along at least one axis that differ by at least 0.04, and wherein the ratio of Δn xy over Δn yz for the first optical layer is at least 3. alternating first and second optical layers, the first optical layer comprising a first polyester derived from first carboxylate monomers and first diol monomers, the first carboxylate monomers comprising from 5 to 50 mol % of 4,4'-biphenyl dicarboxylate, wherein the first and second optical layers have refractive indices along at least one axis that differ by at least 0.04, and wherein the ratio of Δn xy over Δn yz for the first optical layer is at least 3.
Microstructure arrangement for the bubble-free filling with a liquid of at least one system for draining off liquids (liquid-discharging system, 5), where - the arrangement has an inlet for the arrangement to be connected to a system for the supply of liquids (liquid-supplying system, 9), - the arrangement has at least one outlet for the arrangement to be connected to the at least one liquid-discharging system, - the arrangement has a transition region, through which the liquid can be transported from the inlet to the at least one outlet, - at a start of the transition region, at least one first microstructure element for producing a point with increased capillary force is provided, in order to achieve gap-free wetting of the areas bounding this point with increased capillary force, in particular side walls, a cover and/or a bottom, and in order to effect a liquid meniscus being drawn from the start of the transition region to the end of the transition region, that is to say to the outlet or outlets, on account of capillary forces, characterized in that - a region for collecting the liquid supplied by the inlet (collecting region, 10) is arranged between the inlet and the transition region, where the collecting region is separated from the transition region by the point with increased capillary force and additionally by a capillary stop, where the capillary stop is formed as a ledge between collecting region and transition region, and where either the collecting region is elevated as compared with the transition region or the transition region is elevated as compared with the collecting region. - the arrangement has an inlet for the arrangement to be connected to a system for the supply of liquids (liquid-supplying system, 9), - the arrangement has at least one outlet for the arrangement to be connected to the at least one liquid-discharging system, - the arrangement has a transition region, through which the liquid can be transported from the inlet to the at least one outlet, - at a start of the transition region, at least one first microstructure element for producing a point with increased capillary force is provided, in order to achieve gap-free wetting of the areas bounding this point with increased capillary force, in particular side walls, a cover and/or a bottom, and in order to effect a liquid meniscus being drawn from the start of the transition region to the end of the transition region, that is to say to the outlet or outlets, on account of capillary forces, - a region for collecting the liquid supplied by the inlet (collecting region, 10) is arranged between the inlet and the transition region, where the collecting region is separated from the transition region by the point with increased capillary force and additionally by a capillary stop, where the capillary stop is formed as a ledge between collecting region and transition region, and where either the collecting region is elevated as compared with the transition region or the transition region is elevated as compared with the collecting region.
A computer-implemented distance measurement method, the method comprising: obtaining two neighboring frames of images that are photographed by an unmanned aerial vehicle; determining a first region of interest, ROI, of each of the two neighboring frames of images; determining that the unmanned aerial vehicle cannot determine a distance between the unmanned aerial vehicle and a target in a flight direction of the unmanned aerial vehicle by using a stereo matching method; enlarging the first region of interest, ROI, of each of the two neighboring frames of images, to form a second region of interest, ROI; characterized by respectively extracting foregrounds in the second regions of interest, ROIs, from the two neighboring frames of images; determining whether at least two targets exist in the foregrounds; if yes, determining that one of the at least two targets is a detection object; and determining a distance between the unmanned aerial vehicle and the detection object according to the foregrounds respectively extracted from the two neighboring frames of images. obtaining two neighboring frames of images that are photographed by an unmanned aerial vehicle; determining a first region of interest, ROI, of each of the two neighboring frames of images; determining that the unmanned aerial vehicle cannot determine a distance between the unmanned aerial vehicle and a target in a flight direction of the unmanned aerial vehicle by using a stereo matching method; enlarging the first region of interest, ROI, of each of the two neighboring frames of images, to form a second region of interest, ROI; characterized by respectively extracting foregrounds in the second regions of interest, ROIs, from the two neighboring frames of images; determining whether at least two targets exist in the foregrounds; if yes, determining that one of the at least two targets is a detection object; and determining a distance between the unmanned aerial vehicle and the detection object according to the foregrounds respectively extracted from the two neighboring frames of images.
A vehicle front headlight device comprising: a light source configured to emit light; a rotating mirror configured by disposing a first mirror body and a second mirror body around a circumferential direction of a shaft, rotationally driven about the shaft, and configured to rotate while reflecting light emitted by the light source; a lens configured to transmit light reflected by the rotating mirror so as to illuminate the light forward; and a controller configured to control rotational drive of the rotating mirror, characterized in that: a first illuminated region (HaL) of light that is reflected by the first mirror body and that is radiated forward through the lens, and a second illuminated region (HaR) of light that is reflected by the second mirror body and that is radiated forward through the lens, are offset from each other in a vehicle width direction; and the first illuminated region (HaL) and the second illuminated region (HaR) partially overlap with each other. a light source configured to emit light; a rotating mirror configured by disposing a first mirror body and a second mirror body around a circumferential direction of a shaft, rotationally driven about the shaft, and configured to rotate while reflecting light emitted by the light source; a lens configured to transmit light reflected by the rotating mirror so as to illuminate the light forward; and a controller configured to control rotational drive of the rotating mirror, characterized in that: a first illuminated region (HaL) of light that is reflected by the first mirror body and that is radiated forward through the lens, and a second illuminated region (HaR) of light that is reflected by the second mirror body and that is radiated forward through the lens, are offset from each other in a vehicle width direction; and the first illuminated region (HaL) and the second illuminated region (HaR) partially overlap with each other. a first illuminated region (HaL) of light that is reflected by the first mirror body and that is radiated forward through the lens, and a second illuminated region (HaR) of light that is reflected by the second mirror body and that is radiated forward through the lens, are offset from each other in a vehicle width direction; and the first illuminated region (HaL) and the second illuminated region (HaR) partially overlap with each other.
An electronic communication device for performing an authentication session with an authentication server, wherein the electronic communication device comprises: a communication interface configured to receive for the authentication session a random bit string from the authentication server and mapping information from a security server, wherein the mapping information defines a mapping of each of a plurality of integer values to a respective substring of the random bit string; a PIN pad configured to generate, in response to each of a sequence of operations of the PIN pad by a user, a respective PIN pad signal; a processing circuitry configured to generate based on each PIN pad signal a respective input integer value and to determine based on the mapping information for the respective input integer value the respective substring of the random bit string; wherein the communication interface is further configured, once a pre-defined number of input integer values have been entered, to transmit the plurality of substrings of the random bit string to the authentication server for processing the authentication session. a communication interface configured to receive for the authentication session a random bit string from the authentication server and mapping information from a security server, wherein the mapping information defines a mapping of each of a plurality of integer values to a respective substring of the random bit string; a PIN pad configured to generate, in response to each of a sequence of operations of the PIN pad by a user, a respective PIN pad signal; a processing circuitry configured to generate based on each PIN pad signal a respective input integer value and to determine based on the mapping information for the respective input integer value the respective substring of the random bit string; wherein the communication interface is further configured, once a pre-defined number of input integer values have been entered, to transmit the plurality of substrings of the random bit string to the authentication server for processing the authentication session.
A composition comprising a variant glucoamylase enzyme comprising an amino acid substitution as compared to SEQ ID NO:1, wherein said amino acid substitution is selected from the group consisting of: A114G, A530T, I190V, N599D, S24A, T32I, I47V, R71K, E75D, L88I, D102S, R104P, Y118F, S201Q, S204A, A260G, Q228P, L230F, A269G, C271W, D272N, P281S, A283G, L284F, S285V, S285A, S293F, A350S, I313V, Y321F, L338R, Y343S, A367D, A367S, R371G, S386A, T372P, H401Y, L408I, T420L, A448G, G463S, T483A, P484T, S507G, S563T, K605N, and K605T; wherein said variant glucoamylase enzyme is at least 95% identical to SEQ ID NO:1 and retains glucoamylase activity, and wherein said variant glucoamylase enzyme has at least 1.1 fold better activity as compared to SEQ ID NO:1 under a condition selected from the group consisting of thermostability at 40°C, thermostability at 52°C, thermostability at 56°C and thermostability at 60°C, and wherein said variant enzyme is at least 95% identical to SEQ ID NO:1.
A method for beamforming in a multiple input multiple output, MIMO, communication system, the method comprising: receiving an uplink non-sounding data unit from a communication device via a MIMO communication channel; determining whether the uplink non-sounding data unit satisfies one or more selection criteria; when it is determined that the uplink non-sounding data unit satisfies the one or more selection criteria, selecting the uplink non-sounding data unit to be used in developing a steering matrix for transmitting data units to the communication device; and developing the steering matrix based on one or more training signals included in the selected uplink non-sounding data unit. receiving an uplink non-sounding data unit from a communication device via a MIMO communication channel; determining whether the uplink non-sounding data unit satisfies one or more selection criteria; when it is determined that the uplink non-sounding data unit satisfies the one or more selection criteria, selecting the uplink non-sounding data unit to be used in developing a steering matrix for transmitting data units to the communication device; and developing the steering matrix based on one or more training signals included in the selected uplink non-sounding data unit.
Sewn covering (30, 30.2, 30.5, 30.6) for laminating support parts, - having at least one first and at least one second cover element (40, 42) which are connected to one another by way of a functional seam (32, 56), - wherein the seam stump which is formed by the functional seam (32, 56) is enclosed by a seam band (12, 12.3, 60), - the seam band (12, 12.3, 60) being fixed by the functional seam (32, 56), - characterized in that - the seam band (12, 12.3, 60) has a thickness of between 0.2 millimetres and 0.5 millimetres. - having at least one first and at least one second cover element (40, 42) which are connected to one another by way of a functional seam (32, 56), - wherein the seam stump which is formed by the functional seam (32, 56) is enclosed by a seam band (12, 12.3, 60), - the seam band (12, 12.3, 60) being fixed by the functional seam (32, 56), - characterized in that - the seam band (12, 12.3, 60) has a thickness of between 0.2 millimetres and 0.5 millimetres.