mhurhangee/ep-ind-claims huggingface dataset:
- A battery box for a vehicle, the box comprising an internal volume delimited by walls (2a, 2b, 2c, 2d, 2e) and intended to receive at least one battery, the box comprising at least one removable cover providing access to the internal volume of the box, the box being characterized in that it comprises: - at least two connecting tabs (11a, 11b) arranged in the internal volume of the box and secured to the walls of the latter, - at least one interface plate that is attached by removable attachment means to the connecting tabs, the connecting tabs (11a, 11b) having a distribution making it possible to ensure bearing of the interface plate on at least two of its sides, so as to limit its bending, the interface plate being housed in the internal volume of the box, between the cover and the battery or batteries, - at least a first shielding plate that is removably attached to the interface plate. - at least two connecting tabs (11a, 11b) arranged in the internal volume of the box and secured to the walls of the latter, - at least one interface plate that is attached by removable attachment means to the connecting tabs, the connecting tabs (11a, 11b) having a distribution making it possible to ensure bearing of the interface plate on at least two of its sides, so as to limit its bending, the interface plate being housed in the internal volume of the box, between the cover and the battery or batteries, - at least a first shielding plate that is removably attached to the interface plate.
Molding process using a mold, comprising the phases of: - loading milled paper or pulp of paper and/or wood into the mold; - adding water or water vapor by means of an injection device to the milled paper or to the pulp of paper and/or wood into the mold; - rotating the mold on itself with respect to at least two axes so as to have the milled paper or the pulp of paper and/or wood arranged on the mold walls; - while the mold rotates and/or after the rotation of the mold, the milled paper or the pulp of paper and/or wood is dehydrated by means of a lattice acting as drainage filter so as to obtain a dry article which is hollow internally and has a shape homologous to that of the mold; wherein before dehydrating the milled paper or the pulp of paper and/or wood, the same milled paper or the pulp of paper and/or wood contained in the mold is heated by means of a system of thermistors. - loading milled paper or pulp of paper and/or wood into the mold; - adding water or water vapor by means of an injection device to the milled paper or to the pulp of paper and/or wood into the mold; - rotating the mold on itself with respect to at least two axes so as to have the milled paper or the pulp of paper and/or wood arranged on the mold walls; - while the mold rotates and/or after the rotation of the mold, the milled paper or the pulp of paper and/or wood is dehydrated by means of a lattice acting as drainage filter so as to obtain a dry article which is hollow internally and has a shape homologous to that of the mold;
A method to improve network security, the method comprising: assigning at least one level of trust to at least one network node (2100, 2200, 2300, 2400, 2500, 2600); and utilizing the at least one level of trust to determine a degree of security of the at least one network node (2100, 2200, 2300, 2400, 2500, 2600), wherein the at least one level of trust of the at least one network node (2100, 2200, 2300, 2400, 2500, 2600) is related to an amount of certainty of a physical location of the at least one network node (2100, 2200, 2300, 2400, 2500, 2600), wherein the amount of certainty is attained from verification of the physical location using geolocation techniques, which use at least one spot beam (2800, 2900) based authentication signal in order to obtain the physical location of the at least one network node (2100, 2200, 2300, 2400, 2500, 2600), at least one security key is used to authenticate the network node, wherein liveness information provided through a satellite spot beam is used to derive the at least one security key. assigning at least one level of trust to at least one network node (2100, 2200, 2300, 2400, 2500, 2600); and utilizing the at least one level of trust to determine a degree of security of the at least one network node (2100, 2200, 2300, 2400, 2500, 2600), wherein the at least one level of trust of the at least one network node (2100, 2200, 2300, 2400, 2500, 2600) is related to an amount of certainty of a physical location of the at least one network node (2100, 2200, 2300, 2400, 2500, 2600), wherein the amount of certainty is attained from verification of the physical location using geolocation techniques, which use at least one spot beam (2800, 2900) based authentication signal in order to obtain the physical location of the at least one network node (2100, 2200, 2300, 2400, 2500, 2600), at least one security key is used to authenticate the network node, wherein liveness information provided through a satellite spot beam is used to derive the at least one security key.
A solar heat collection tube comprising: an inner tube through the interior of which a heat medium can flow; an outer tube that covers an outer periphery of the inner tube such that an annular heat insulating space is formed between the outer tube and the inner tube; and thermal expansion difference absorbing means for absorbing a thermal expansion difference between the inner tube and the outer tube, wherein the outer tube is a glass tube, a first anti-reflection film is formed on an inner surface of the glass tube, a second anti-reflection film is formed on an outer surface of the glass tube; characterized in that the first anti-reflection film is a mesoporous silica film having a porosity of 30% to 50%, and the second anti-reflection film is a hollow silica film having a porosity of 15% to 30%, so that the second anti-reflection film is more durable to the external environment than the first anti-reflection film, and the first anti-reflection film has a higher optical transmittance than the second anti-reflection film. an inner tube through the interior of which a heat medium can flow; an outer tube that covers an outer periphery of the inner tube such that an annular heat insulating space is formed between the outer tube and the inner tube; and thermal expansion difference absorbing means for absorbing a thermal expansion difference between the inner tube and the outer tube, wherein the outer tube is a glass tube, a first anti-reflection film is formed on an inner surface of the glass tube, a second anti-reflection film is formed on an outer surface of the glass tube; characterized in that the first anti-reflection film is a mesoporous silica film having a porosity of 30% to 50%, and the second anti-reflection film is a hollow silica film having a porosity of 15% to 30%, so that the second anti-reflection film is more durable to the external environment than the first anti-reflection film, and the first anti-reflection film has a higher optical transmittance than the second anti-reflection film.
Volume flow metering device for emitting a defined quantity flow of a fluid, in particular a compressible fluid, with a predefined pressure to a consumer, with a supply line for the fluid, with a first displacement device (14, 15) which is connected to the supply line, with a second displacement device (13, 15) which is connected for flow purposes to the first displacement device (14, 15) via a connecting line, with a feed line which leads from the second displacement device (13, 15) to the consumer, with a differential pressure measuring device (33, 35) or a flow measuring device in the connecting line for measuring a fluid exchange between the displacement devices (13, 14, 15), and with a drive device (26, 31) which is coupled to the two displacement devices (13, 14, 15) such that the free volumes of the two displacement devices (13, 14, 15) are changed by the same amount in opposite directions, wherein the first and second displacement devices (13, 14, 15) comprise a cylinder (13, 14) and wherein a displacement piston leads in sealed fashion from an end face of the cylinder (13, 14) into the cylinder (13, 14) such that the free volume of the cylinder (13, 14) is variable.
A vehicle front hood structure, comprising a hood skin and a hood frame attached to a back side of the hood skin, the hood frame comprising: a center bead projecting toward the hood skin and extending outwardly in either lateral direction from an intersection between a connecting line connecting a pair of folding points defined centrally in a fore and aft direction on either side edge of the hood frame and a laterally central line; and a plurality of radiating beads (26, 28) projecting toward the hood skin and extending diagonally in a diagonal direction of the hood frame, wherein the plurality of radiating beads (26, 28) extend diagonally both in front of and behind the center bead; and the hood frame includes a planar section having a prescribed width (d) and not formed with a bead which is located between the center bead and an opposing end of each radiating bead (26, 28), characterized in that the center bead continuously extends linearly in either lateral direction to a point short by a prescribed distance (c) of each side edge of the hood frame; and the hood frame further includes a planar section that does not include a bead and extends laterally by the prescribed distance (c) of the center bead. a center bead projecting toward the hood skin and extending outwardly in either lateral direction from an intersection between a connecting line connecting a pair of folding points defined centrally in a fore and aft direction on either side edge of the hood frame and a laterally central line; and a plurality of radiating beads (26, 28) projecting toward the hood skin and extending diagonally in a diagonal direction of the hood frame, the plurality of radiating beads (26, 28) extend diagonally both in front of and behind the center bead; and the hood frame includes a planar section having a prescribed width (d) and not formed with a bead which is located between the center bead and an opposing end of each radiating bead (26, 28), the center bead continuously extends linearly in either lateral direction to a point short by a prescribed distance (c) of each side edge of the hood frame; and the hood frame further includes a planar section that does not include a bead and extends laterally by the prescribed distance (c) of the center bead.
Method for manufacturing a three-dimensional article, comprising the steps of a) successively building up said article from a metallic base material, which is a high temperature Fe based or Ni based or Co based alloy, by means of an additive manufacturing process, said additive manufacturing process is one of selective laser melting, selective laser sintering or electron beam melting, and a metallic base material of powder form or in form of a suspension is used, thereby creating an article with a substantial anisotropy of its properties; and b) heat treating said manufactured article, wherein said heat treatment consists of multiple steps, wherein at least one of said heat treatment steps is conducted at a temperature and at a hold time t such to recrystallize and/or grain coarse the base material, thereby creating an article with a significantly reduced anisotropy, each of said heat treatment multiple steps representing a specific combination of heating rate, hold temperature, hold time and cooling rate, wherein at least one of said heat treatment steps is conducted at a sufficient high temperature and for a hold time long enough to partially or completely dissolve intermetallic phases, carbides or nitrides in the microstructure of said manufactured article, and wherein at least one of said heat treatment steps is conducted at a sufficient high temperature and for a hold time long enough to modify the volume fraction, size, shape and distribution of precipitations of any of metal-carbides, metal-nitrides or metal-carbonitrides, intermetallic phases or metal-borides. a) successively building up said article from a metallic base material, which is a high temperature Fe based or Ni based or Co based alloy, by means of an additive manufacturing process, said additive manufacturing process is one of selective laser melting, selective laser sintering or electron beam melting, and a metallic base material of powder form or in form of a suspension is used, thereby creating an article with a substantial anisotropy of its properties; and b) heat treating said manufactured article, wherein said heat treatment consists of multiple steps, wherein at least one of said heat treatment steps is conducted at a temperature and at a hold time t such to recrystallize and/or grain coarse the base material, thereby creating an article with a significantly reduced anisotropy, each of said heat treatment multiple steps representing a specific combination of heating rate, hold temperature, hold time and cooling rate, wherein at least one of said heat treatment steps is conducted at a sufficient high temperature and for a hold time long enough to partially or completely dissolve intermetallic phases, carbides or nitrides in the microstructure of said manufactured article, and wherein at least one of said heat treatment steps is conducted at a sufficient high temperature and for a hold time long enough to modify the volume fraction, size, shape and distribution of precipitations of any of metal-carbides, metal-nitrides or metal-carbonitrides, intermetallic phases or metal-borides.
A facial support apparatus comprising a facial region support member connected to an ear connection member (12, 14), wherein the facial region support member comprises a silicone gel pad encased in an elastomeric casing (52, 54, 56, 58) and wherein the silicone gel pad is adapted and dimensioned to apply downward pressure to a facial structure underlying placement of the silicone gel pad when the apparatus is applied to the face of a user, wherein the at least one facial region support member includes a pair of cheek supports (16a, 16b) and a pair of ear connection members (12, 14), wherein each cheek support (16a, 16b) is adapted to extend from one of the pair of ear connection members (12, 14) across at least a portion of each cheek of the user when the apparatus is applied to the face of the user.
A method for producing a crosslinked gel; said method comprising steps of: (a) combining (i) water, (ii) alginic acid, alginates, or mixtures thereof, (iii) carboxymethylcellulose, (iv) a salt of calcium, magnesium or zinc, (v) a nonionic surfactant and (vi) fragrance to form a gel having a surface; and (b) contacting with the surface of said gel an additional aqueous solution of a salt of calcium, magnesium or zinc, in which the gel comprises from 86 to 96 wt% water, from 0.3 to 2.5 wt.% carboxymethylcellulose; from 0.3 to 2.5 wt.% alginic acid, alginates, or mixtures thereof; from 0.1 to 1 wt% of a salt of calcium, magnesium or zinc, or a combination thereof; from 0.2 to 2 wt% nonionic surfactant and from 1 to 6 wt% of one or more fragrances; and wherein said aqueous solution is added in an amount from 0.1 to 1 wt% and comprises from 2 to 20 wt% of a salt of calcium, magnesium or zinc. (a) combining (i) water, (ii) alginic acid, alginates, or mixtures thereof, (iii) carboxymethylcellulose, (iv) a salt of calcium, magnesium or zinc, (v) a nonionic surfactant and (vi) fragrance to form a gel having a surface; and (b) contacting with the surface of said gel an additional aqueous solution of a salt of calcium, magnesium or zinc,
An electrical power system comprising: an electrical power distribution network; a control device configured to regulate at least one attribute of said electrical power system; and a processor coupled to said control device, said processor configured to: identify an out-of-bound condition on said electrical power distribution network at a first time, the out-of-bound condition associated with the at least one attribute; after a predetermined delay time elapses, determine a trend for the at least one attribute at a second time that is later than the first time, the trend indicating a direction away from at least one of a predetermined range and a predetermined value; and transmit a control action to said control device based at least in part on the trend. an electrical power distribution network; a control device configured to regulate at least one attribute of said electrical power system; and a processor coupled to said control device, said processor configured to: identify an out-of-bound condition on said electrical power distribution network at a first time, the out-of-bound condition associated with the at least one attribute; after a predetermined delay time elapses, determine a trend for the at least one attribute at a second time that is later than the first time, the trend indicating a direction away from at least one of a predetermined range and a predetermined value; and transmit a control action to said control device based at least in part on the trend. identify an out-of-bound condition on said electrical power distribution network at a first time, the out-of-bound condition associated with the at least one attribute; after a predetermined delay time elapses, determine a trend for the at least one attribute at a second time that is later than the first time, the trend indicating a direction away from at least one of a predetermined range and a predetermined value; and transmit a control action to said control device based at least in part on the trend.
A production method of a resin porous material, the method comprising: preparing a solution of a water-insoluble polymer in a mixed solvent including a good solvent of the water-insoluble polymer and a first poor solvent of the water-insoluble polymer and vaporizing and removing the mixed solvent from the solution, wherein the first poor solvent has a higher boiling point than the good solvent and, in vaporizing and removing the mixed solvent, the mixed solvent is vaporized and removed under the presence of vapor of a second poor solvent of the water-insoluble polymer to form pores and obtain a porous material, and whereby the "good solvent of a water-insoluble polymer" refers to a solvent exhibiting a solubility to a water-insoluble polymer at 25°C of 1 mass% or more, the "poor solvent of a water-insoluble polymer" refers to a solvent exhibiting a solubility to the water-insoluble polymer at 25°C of less than 1 mass%, and "water-insoluble polymer" refers to a polymer having a solubility in water at 25 °C of less than 1 mass%. preparing a solution of a water-insoluble polymer in a mixed solvent including a good solvent of the water-insoluble polymer and a first poor solvent of the water-insoluble polymer and vaporizing and removing the mixed solvent from the solution, wherein the first poor solvent has a higher boiling point than the good solvent and, in vaporizing and removing the mixed solvent, the mixed solvent is vaporized and removed under the presence of vapor of a second poor solvent of the water-insoluble polymer to form pores and obtain a porous material, and whereby the "good solvent of a water-insoluble polymer" refers to a solvent exhibiting a solubility to a water-insoluble polymer at 25°C of 1 mass% or more, the "poor solvent of a water-insoluble polymer" refers to a solvent exhibiting a solubility to the water-insoluble polymer at 25°C of less than 1 mass%, and "water-insoluble polymer" refers to a polymer having a solubility in water at 25 °C of less than 1 mass%.
A signal scrambling method for peak-to-average power ratio, PAPR, reduction of space-time block-coded, STBC, multiple-input multiple-output orthogonal frequency division multiplexing, MIMO-OFDM signals in a MIMO-OFDM system having Y transmit antennas, comprising: dividing the OFDM sequence of symbols ( X 1, X 2) in said signal for each transmit antenna into M sub-blocks ( X 1 = [ X 1,1, X 1,2,..., X 1,M]; X 2 = [ X 2,1, X 2,2,..., X 2,M]) of equal size and performing sub-blockwise cross-antenna rotation and inversions within the same sub-block position of symbols on different transmit antennas to generate M permuted sequence sets from the original OFDM sequence, wherein a rotation within the same sub-block position on different transmit antennas ( X 1,1, X 2,1) swaps symbols of said sub-block ( X 1,1) for a transmit antenna with symbols of said sub-block ( X 2,1) for a different transmit antenna, and wherein an inversion within a sub-block ( X 2,1, X 2,1) inverts the signal sign of symbols of said sub-block (- X 1,1, - X 2,1); and based on a predetermined criteria, selecting from the resulting said sets of OFDM sequences the one with the best PAPR property for transmission. dividing the OFDM sequence of symbols ( X 1, X 2) in said signal for each transmit antenna into M sub-blocks ( X 1 = [ X 1,1, X 1,2,..., X 1,M]; X 2 = [ X 2,1, X 2,2,..., X 2,M]) of equal size and performing sub-blockwise cross-antenna rotation and inversions within the same sub-block position of symbols on different transmit antennas to generate M permuted sequence sets from the original OFDM sequence, wherein a rotation within the same sub-block position on different transmit antennas ( X 1,1, X 2,1) swaps symbols of said sub-block ( X 1,1) for a transmit antenna with symbols of said sub-block ( X 2,1) for a different transmit antenna, and wherein an inversion within a sub-block ( X 2,1, X 2,1) inverts the signal sign of symbols of said sub-block (- X 1,1, - X 2,1); and based on a predetermined criteria, selecting from the resulting said sets of OFDM sequences the one with the best PAPR property for transmission.
An apparatus, comprising: a flexible catheter adapted for insertion into a heart of a living subject and having a distal segment (37; 53); an ablation electrode disposed at the distal segment to be brought into contact with a target tissue in the heart; the ablation electrode having an external surface, and a cavity (41; 43) formed in the external surface; a microelectrode (45; 47; 61) configured to fit into the cavity; a conductive wire lead connecting the microelectrode to receiving circuitry; and an electrical shield (51; 71) surrounding the wire lead, wherein the electrical shield provides an envelope with potential equal to the potential of the ablation electrode. a flexible catheter adapted for insertion into a heart of a living subject and having a distal segment (37; 53); an ablation electrode disposed at the distal segment to be brought into contact with a target tissue in the heart; the ablation electrode having an external surface, and a cavity (41; 43) formed in the external surface; a microelectrode (45; 47; 61) configured to fit into the cavity; a conductive wire lead connecting the microelectrode to receiving circuitry; and an electrical shield (51; 71) surrounding the wire lead, wherein the electrical shield provides an envelope with potential equal to the potential of the ablation electrode.