mhurhangee/ep-ind-claims huggingface dataset:
Structural part of a motor vehicle seat, with a first part provided in a U-shaped manner and with a second part, which parts are connected to each other by an integrally bonded connection, wherein the integrally bonded connection is designed in such a manner that it substantially absorbs shearing stresses, wherein the second part has two integrally formed receptacles, each with a gap, into which the end of a limb of the first part provided in a U-shaped manner is in each case inserted and connected in an adhesively bonding manner, wherein the gap is of V-shaped design, the width of the gap in the gap base is at least twice the thickness of the inserted portion of the first part provided in a U-shaped manner, and the gap widens at an angle of between 5 and 20° in the direction of the inserted first part provided in a U-shaped manner, wherein a secondary gap which is filled with an adhesive is formed on both sides between the receptacle of the second part and the inserted end of one of the limbs of the first part provided in a U-shaped manner, characterized in that the parts (2, 4) are composed in each case of different materials, wherein the material of the first part provided in a U-shaped manner comprises steel, wherein the material of the second part comprises a lightweight construction material, wherein the first part provided in a U-shaped manner is a frame part with a U-shaped cross section of a motor vehicle seat, and the second part is a baseplate of the structure of a motor vehicle seat.
A method for managing a parking space for a vehicle, said parking space comprising means for detecting the occupation of said parking space and at least one power recharging terminal capable of providing electricity to a vehicle connected to this terminal, said method comprising, within a phase called occupation monitoring, performed after manual connection of said vehicle to said terminal for electrical recharging of said vehicle, comprising: - a detection, by said means for detecting the occupation, of a state of presence of a vehicle occupying the managed parking space, and - a detection of a state of absence of connection of a vehicle to the said recharging terminal; said method comprising moreover, after a detection of presence without detection of a connection, at least one processing operation, called parking processing operation, comprising a transmission of at least one warning by audible or visual means, or by recording or transmission of a computerized message. - a detection, by said means for detecting the occupation, of a state of presence of a vehicle occupying the managed parking space, and - a detection of a state of absence of connection of a vehicle to the said recharging terminal;
A method for producing a heterologous protein comprising: culturing a coryneform bacterium having a genetic construct for secretory expression of the heterologous protein; and collecting the heterologous protein produced by secretory production, wherein the coryneform bacterium has been modified so that the number of molecules of a RegX3 protein per cell is reduced as compared with a non-modified strain, wherein the genetic construct comprises, in the direction from 5' to 3', a promoter sequence that functions in the coryneform bacterium, a nucleic acid sequence encoding a signal peptide that functions in the coryneform bacterium, and a nucleic acid sequence encoding the heterologous protein, and wherein the heterologous protein is expressed as a fusion protein with the signal peptide. culturing a coryneform bacterium having a genetic construct for secretory expression of the heterologous protein; and collecting the heterologous protein produced by secretory production, wherein the coryneform bacterium has been modified so that the number of molecules of a RegX3 protein per cell is reduced as compared with a non-modified strain, wherein the genetic construct comprises, in the direction from 5' to 3', a promoter sequence that functions in the coryneform bacterium, a nucleic acid sequence encoding a signal peptide that functions in the coryneform bacterium, and a nucleic acid sequence encoding the heterologous protein, and wherein the heterologous protein is expressed as a fusion protein with the signal peptide.
A method of making a fire-resistant wide-meshed grid comprising the following steps: - providing a poly(vinyl chloride) plastisol, - providing a polyester yarn mesh fabric, - coating the polyester yarn mesh fabric with the PVC plastisol, - heating the coated fabric for about 5 to 20 minutes, more preferably for about 5 to 15 minutes, to a temperature comprised between 110 °C and 150 °C, so as to effect gelatinization of the PVC plastisol and form a plasticized PVC coating enveloping the polyester yarns of the mesh fabric, wherein the PVC plastisol, comprises (a) a poly(vinyl chloride) base resin, (b) from 60 to 140 phr of a primary plasticizer which is tris-(2-chloroisopropyl)phosphate (TCPP), (c) from 40 to 140 phr of a secondary plasticizer, (d) from 145 to 230 phr of an inorganic filler. - providing a poly(vinyl chloride) plastisol, - providing a polyester yarn mesh fabric, - coating the polyester yarn mesh fabric with the PVC plastisol, - heating the coated fabric for about 5 to 20 minutes, more preferably for about 5 to 15 minutes, to a temperature comprised between 110 °C and 150 °C, so as to effect gelatinization of the PVC plastisol and form a plasticized PVC coating enveloping the polyester yarns of the mesh fabric, (a) a poly(vinyl chloride) base resin, (b) from 60 to 140 phr of a primary plasticizer which is tris-(2-chloroisopropyl)phosphate (TCPP), (c) from 40 to 140 phr of a secondary plasticizer, (d) from 145 to 230 phr of an inorganic filler.
Process for producing dendritic polyglycerol from glycerol comprising the following steps: (a) Adding in a vessel glycerol and a CaO-based catalyst, (b) Flushing an inert gas, preferably carbon dioxide, to the resulting mixture and hermetically closing the reaction vessel, allowing pressure to build up from 1 to 10 bar above atmospheric, preferably from 2 to 6 bar; (c) Heating the reaction mixture at a reaction temperature of at least 100°C and below its boiling point; (d) Maintaining the reaction conditions until at least 40 wt.% of glycerol is polycondensed and converted into hyperbranched polyglycerol, with concomitant water formation, (e) Separating the dendritic polyglycerol from other components present in the mixture; such as water, catalyst and reaction by-products such as hydroxyacids and glycerol carbonate esters and minor amounts of cyclic compounds. Characterized in that, the calcium based catalyst is nanostructured calcium oxide in the form of a powder of mean particle size smaller than 100 nm measured according to ASTM D4464, and wherein the nanostructured Ca oxide has a blue shift, Δ v 8a, of the C=C stretching band of adsorbed pyridine as compared to the value of 1580 cm -1 for gas-phase pyridine comprised between 14 and 20 cm -1 (a) Adding in a vessel glycerol and a CaO-based catalyst, (b) Flushing an inert gas, preferably carbon dioxide, to the resulting mixture and hermetically closing the reaction vessel, allowing pressure to build up from 1 to 10 bar above atmospheric, preferably from 2 to 6 bar; (c) Heating the reaction mixture at a reaction temperature of at least 100°C and below its boiling point; (d) Maintaining the reaction conditions until at least 40 wt.% of glycerol is polycondensed and converted into hyperbranched polyglycerol, with concomitant water formation, (e) Separating the dendritic polyglycerol from other components present in the mixture; such as water, catalyst and reaction by-products such as hydroxyacids and glycerol carbonate esters and minor amounts of cyclic compounds.
A section of a gas turbine engine comprising: a case structure having a first coefficient of thermal expansion; a continuous ring-shaped liner having a second coefficient of thermal expansion that is substantially different than the first coefficient of thermal expansion; a flexible leaf member (46; 146; 246; 346; 446; 546; 646; 746; 846; 946) having first and second portions mechanically affixed respectively to the liner and to the case structure, the leaf member (46; 146; 246; 346; 446; 546; 646; 746; 846; 946) configured to accommodate diametrical change in the liner throughout various section-operating temperatures; and a blade arranged within the case structure; characterised in that the blade has a third coefficient of thermal expansion that is substantially similar to the second coefficient of thermal expansion, the continuous ring-shaped liner surrounding the blade and a desired radial tip clearance between the liner and the blade, wherein the flexible leaf member (46; 146; 246; 346; 446; 546; 646; 746; 846; 946) is configured to maintain the desired radial tip clearance throughout various section-operating temperatures; wherein the case structure includes a composite case, and the blade is a metallic fan blade; and wherein the case structure includes a honeycomb structure operatively connected radially inward of and to the composite case. a case structure having a first coefficient of thermal expansion; a continuous ring-shaped liner having a second coefficient of thermal expansion that is substantially different than the first coefficient of thermal expansion; a flexible leaf member (46; 146; 246; 346; 446; 546; 646; 746; 846; 946) having first and second portions mechanically affixed respectively to the liner and to the case structure, the leaf member (46; 146; 246; 346; 446; 546; 646; 746; 846; 946) configured to accommodate diametrical change in the liner throughout various section-operating temperatures; and a blade arranged within the case structure; characterised in that the blade has a third coefficient of thermal expansion that is substantially similar to the second coefficient of thermal expansion, the continuous ring-shaped liner surrounding the blade and a desired radial tip clearance between the liner and the blade, wherein the flexible leaf member (46; 146; 246; 346; 446; 546; 646; 746; 846; 946) is configured to maintain the desired radial tip clearance throughout various section-operating temperatures; wherein the case structure includes a composite case, and the blade is a metallic fan blade; and wherein the case structure includes a honeycomb structure operatively connected radially inward of and to the composite case.
A curable resin composition comprising 1 to 100 parts by mass of a polymer fine particle, 0.5 to 30 parts by mass of an inorganic filler relative to 100 parts by mass of an epoxy resin, wherein the polymer fine particle has a core-shell structure, the core layer of the polymer fine particle is polybutadiene rubber, the content of the epoxy group of the polymer fine particle is 0.01 to 0.15 mmol/g, and the inorganic filler is fumed silica and wherein the polymer fine particle has a volume average particle diameter (Mv) of 10 to 2000 nm, determined as outlined in the experimental part of the description.
Agricultural seeding machine with a storage container for seed, a sowing coulter for opening a furrow (10a, 10b), a pressurized metering device for metering the seed out of the storage container with a conveying airflow into a depositing device, and with a seed-collecting and/or press-on element for fixing the seed deposited by the depositing device in the furrow (10a, 10b), wherein an adjustable furrow former with at least two furrow forming tools (8a, 8b) is designed to form various furrow shapes, in particular on the furrow bottom (10c, 10d), in the furrow (10a, 10b), characterized in that the depositing device comprises a seed line with an adjustable air-deflecting device (7A-7D) for the conveying airflow, and in that the air-deflecting device (7A-7D) comprises a switch element (7a-b, 7i) for the selective supplying, removing and/or blocking of an additional airflow into or from the seed line.
Device for separating test samples comprising at least one first inner rotary disk and a second outer rotary disk, wherein the first inner rotary disk is encompassed by the second outer rotary disk, wherein at least one drive is provided with which the first inner rotary disk and the second outer rotary disk can be set into motion about an axis of rotation, wherein the motion speeds of the two rotary disks (4, 5) differ, wherein between the first rotary disk and the second rotary disk a first barrier is disposed, wherein the second rotary disk is disposed between the first barrier and a second barrier, characterized in that the second barrier comprises two ejectors (20, 21) via which the test samples can be removed from the device and wherein at the ejectors (20, 21) baffles (23, 24) are provided disposed between the first barrier and the second barrier such that the test samples leave the device across the respective ejectors (20, 21), wherein at both ejectors (20, 21) sensors are provided that detect when a test sample leaves the device across the respective ejector (20, 21) and wherein by rotation of the second outer rotary disk in a direction opposite to a first direction of rotation of the second outer rotary disk an inner sector of the device can be emptied and the test samples thereby can be removed from the device across the ejector.
A semiconductor device comprising: a substrate provided with a first region and a second region; a first interlayer film formed on an upper surface of the substrate; a first metal wiring line embedded in an upper portion of the first interlayer film in the first region; a second interlayer film formed on the first interlayer film and the first metal wiring line; a second metal wiring line embedded in an upper portion of the second interlayer film in the first region; a first via penetrating the second interlayer film and electrically connecting the first metal wiring line and the second metal wiring line; a landing pad embedded in the upper portion of the first interlayer film and penetrating the second interlayer film in the second region; and a second via penetrating the substrate and the first interlayer film from a back side of the substrate and connected to the landing pad in the second region, wherein a lower surface position of the landing pad is different from that of the first metal wiring line. a substrate provided with a first region and a second region; a first interlayer film formed on an upper surface of the substrate; a first metal wiring line embedded in an upper portion of the first interlayer film in the first region; a second interlayer film formed on the first interlayer film and the first metal wiring line; a second metal wiring line embedded in an upper portion of the second interlayer film in the first region; a first via penetrating the second interlayer film and electrically connecting the first metal wiring line and the second metal wiring line; a landing pad embedded in the upper portion of the first interlayer film and penetrating the second interlayer film in the second region; and a second via penetrating the substrate and the first interlayer film from a back side of the substrate and connected to the landing pad in the second region, wherein a lower surface position of the landing pad is different from that of the first metal wiring line.
A device, comprising: an extracorporeal circuit comprising a tube having an inner surface and an antibody or antigen-binding fragment thereof bound to a substrate forming the inner surface of the tube, wherein the substrate comprises a polymeric microgel.
An Unmanned Aerial Vehicle, UAV, indication method, comprising: receiving, by a core network device, an access request from a terminal; adding, by the core network device, a first Subscriber Profile ID, SPID, value to first signaling in response to determining that the terminal is a UAV according to the access request, wherein the first SPID value characterizes a UAV identity of the terminal, and the first signaling refers to initial context setup request signaling; and transmitting, by the core network device, the first signaling to a base station, such that the base station determines that the terminal is the UAV according to the first SPID value comprised in the first signaling and provides the terminal with a dedicated UAV service. receiving, by a core network device, an access request from a terminal; adding, by the core network device, a first Subscriber Profile ID, SPID, value to first signaling in response to determining that the terminal is a UAV according to the access request, wherein the first SPID value characterizes a UAV identity of the terminal, and the first signaling refers to initial context setup request signaling; and transmitting, by the core network device, the first signaling to a base station, such that the base station determines that the terminal is the UAV according to the first SPID value comprised in the first signaling and provides the terminal with a dedicated UAV service.
A method of making a polymer matrix composite comprising a porous polymeric network structure; and a plurality of particles distributed within the polymeric network structure, the method comprising: combining a thermoplastic polymer, a solvent, and a plurality of thermally conductive particles having a thermal conductivity greater than 2 W/(m ∗ K) to provide a slurry, thermal conductivity being determined in accordance with the method described in the section of the description entitled Thermal Conductivity Test; forming the slurry into an article; heating the article in an environment to retain at least 90 percent by weight of the solvent in the article, based on the weight of the solvent in the article, and solubilize at least 50 by weight percent of the thermoplastic polymer, based on the total weight of the thermoplastic polymer; and inducing phase separation of the thermoplastic polymer from the solvent to provide the polymer matrix composite; and the method further comprising compressing the polymer matrix composite. combining a thermoplastic polymer, a solvent, and a plurality of thermally conductive particles having a thermal conductivity greater than 2 W/(m ∗ K) to provide a slurry, thermal conductivity being determined in accordance with the method described in the section of the description entitled Thermal Conductivity Test; forming the slurry into an article; heating the article in an environment to retain at least 90 percent by weight of the solvent in the article, based on the weight of the solvent in the article, and solubilize at least 50 by weight percent of the thermoplastic polymer, based on the total weight of the thermoplastic polymer; and inducing phase separation of the thermoplastic polymer from the solvent to provide the polymer matrix composite; and the method further comprising compressing the polymer matrix composite.
A mesh element for an atomiser assembly, the mesh element comprising: a first layer defining at least one channel, the at least one channel comprising a minimum cross-sectional area; and a second layer overlying the first layer, wherein the second layer defines at least one nozzle comprising a maximum cross-sectional area, and wherein the second layer comprises an inner surface facing the first layer and an outer surface facing away from the first layer; wherein the at least one nozzle overlies the at least one channel, and wherein the maximum cross-sectional area of the at least one nozzle is smaller than the minimum cross-sectional area of the at least one channel; wherein the outer surface of the second layer defines an annular portion extending around the at least one nozzle, wherein the annular portion has a semi-circular cross-sectional shape, and wherein a thickness of the second layer at each annular portion is larger than a thickness of the second layer between adjacent annular portions. a first layer defining at least one channel, the at least one channel comprising a minimum cross-sectional area; and a second layer overlying the first layer, wherein the second layer defines at least one nozzle comprising a maximum cross-sectional area, and wherein the second layer comprises an inner surface facing the first layer and an outer surface facing away from the first layer; wherein the at least one nozzle overlies the at least one channel, and wherein the maximum cross-sectional area of the at least one nozzle is smaller than the minimum cross-sectional area of the at least one channel; wherein the outer surface of the second layer defines an annular portion extending around the at least one nozzle, wherein the annular portion has a semi-circular cross-sectional shape, and wherein a thickness of the second layer at each annular portion is larger than a thickness of the second layer between adjacent annular portions.
A poly(ester amide) of formula: wherein m is about 0.1 - 0.9; n is about 0.9 to 0.1; R 3 is a residue of a first amino acid having a substituent group that does not need protection during peptide synthesis; R 4 and R 6 are (C 2 -C 20) alkylene; and R 5 is a residue of a second amino acid which has a pendant group selected from the group consisting of NH 2, COOH, and OH, and wherein the pendant group is optionally protected, and wherein the PEA has a Mn of 1 to 500 kg/mol. wherein m is about 0.1 - 0.9; n is about 0.9 to 0.1; R 3 is a residue of a first amino acid having a substituent group that does not need protection during peptide synthesis; R 4 and R 6 are (C 2 -C 20) alkylene; and R 5 is a residue of a second amino acid which has a pendant group selected from the group consisting of NH 2, COOH, and OH, and
A method of functionalizing a surface of a solid support with at least one polymeric layer of acrylic acid, said method comprising the steps of: i) contacting said surface with a solution consisting of: - at least one homopolymer of acrylic acid; - a solvent; and optionally - metal salts ii) removing the solvent from the solution in contact with said surface; and iii) fixing the polymer to said surface by heat treatment; the solid support being selected from the group consisting of metal oxides, mineral oxides, plastics, papers and carbon fibres. i) contacting said surface with a solution consisting of: - at least one homopolymer of acrylic acid; - a solvent; and optionally - metal salts - at least one homopolymer of acrylic acid; - a solvent; and optionally - metal salts ii) removing the solvent from the solution in contact with said surface; and iii) fixing the polymer to said surface by heat treatment;
A method for activating T-cells comprising: providing a biodegradable support, comprising microspheres or nanospheres, with an attached first material capable of crosslinking second materials, the second materials being capable of binding moieties on the surface of T-cells; providing at least one second material bound to moieties on the surface of T-cells; mixing the support with the attached first material with the at least one second material bound to moieties on the surface of T-cells so that the first material crosslinks the second material and the second material delivers a signal to the T-cells to cause T-cell activation; and centrifuging the mixture to enhance crosslinking. providing a biodegradable support, comprising microspheres or nanospheres, with an attached first material capable of crosslinking second materials, the second materials being capable of binding moieties on the surface of T-cells; providing at least one second material bound to moieties on the surface of T-cells; mixing the support with the attached first material with the at least one second material bound to moieties on the surface of T-cells so that the first material crosslinks the second material and the second material delivers a signal to the T-cells to cause T-cell activation; and centrifuging the mixture to enhance crosslinking.