mhurhangee/ep-ind-claims huggingface dataset:
A sealed and thermally insulating tank incorporated into a carrying structure, the carrying structure comprising a first planar carrying wall and a second planar carrying wall together forming a ridge of the carrying structure, the tank comprising a first tank wall anchored on the first carrying wall and a second tank wall anchored on the second carrying wall, each tank wall (1, 2) having a multi-layer structure comprising, in succession, in the direction of the thickness from the outside to the inside of the tank, a thermally insulating barrier held against the corresponding carrying wall and a sealing membrane carried by the thermally insulating barrier, the sealing membrane of the first tank wall comprising a first series of parallel corrugations (7, 10) extending perpendicularly to the ridge and spaced by an even separation pitch along the ridge, the sealing membrane of the second tank wall comprising a second series of parallel corrugations (12, 14, 15) extending perpendicularly to the ridge and spaced by said even separation pitch along the ridge, each corrugation (7, 10) of the first series of corrugations (7, 10) being located in the extension of a corresponding corrugation (12, 14) of the second series of corrugations (12, 14, 15), the sealing membrane of the first tank wall further comprising an individual corrugation extending parallel to the corrugations (7, 10) of the first series of corrugations (7, 10), this individual corrugation being adjacent the first series of corrugations (7, 10) and spaced from a last corrugation of the first series of corrugations (7, 10) by an individual separation that is different from the even separation pitch, the sealing membrane of the second tank wall further comprising an individual corrugation parallel to the second series of corrugations (12, 14, 15) and located in the extension of the individual corrugation of the first tank wall, the individual corrugation of the second tank wall being connected continuously to the individual corrugation of the first tank wall at the ridge, said individual corrugation of the second tank wall extending over a portion of the second tank wall and comprising a first ripple-closure cap for sealingly closing the individual corrugation of the second tank wall at a distance from the ridge, the second series of corrugations (12, 14, 15) comprising a corresponding corrugation of the last corrugation of the first series of corrugations (7, 10) and characterized in that in the tank the second series of corrugations further comprises a last corrugation belonging to the second series of corrugations (12, 14, 15) and offset from the individual corrugation of the second tank wall in the direction of the ridge on account of the individual separation, said last corrugation of the second series of corrugations (12, 14, 15) comprising a second closure cap sealingly closing said last corrugation of the second series of corrugations (12, 14, 15).
Treatment apparatus, in particular dehumidification apparatus, comprising: - at least one container of incoherent plastics, said container comprising at least one plastics inlet, at least one plastics outlet, at least one process gas inlet and at least one process gas outlet; - at least one supply line for supplying a process gas to said process gas inlet of said container; - at least one flow generator for generating a process gas flow along said supply line towards said container; - at least one condenser arranged along said supply line for condensing contaminating vapors contained in the process gas flow, said condenser comprising at least one contaminated gas inlet and at least one purified gas outlet; - at least one exchanger arranged along said supply line for cooling the process gas flow, said exchanger comprising at least one gas to be cooled inlet, at least one cooled gas outlet, at least one cooling gas inlet and at least one heated gas outlet; wherein said supply line comprises at least one connection portion which connects said cooled gas outlet with said contaminated gas inlet, at least one recirculation portion which connects said purified gas outlet with said cooling gas inlet, and at least one delivery portion which connects said heated gas outlet with said process gas inlet of said container; characterized by said condenser comprising evaporator means in which a cooling flow circulates to cool the process gas flow and by comprising molecular sieve dehumidification means arranged along said delivery portion for dehumidifying the process gas flow. - at least one container of incoherent plastics, said container comprising at least one plastics inlet, at least one plastics outlet, at least one process gas inlet and at least one process gas outlet; - at least one supply line for supplying a process gas to said process gas inlet of said container; - at least one flow generator for generating a process gas flow along said supply line towards said container; - at least one condenser arranged along said supply line for condensing contaminating vapors contained in the process gas flow, said condenser comprising at least one contaminated gas inlet and at least one purified gas outlet; - at least one exchanger arranged along said supply line for cooling the process gas flow, said exchanger comprising at least one gas to be cooled inlet, at least one cooled gas outlet, at least one cooling gas inlet and at least one heated gas outlet; wherein said supply line comprises at least one connection portion which connects said cooled gas outlet with said contaminated gas inlet, at least one recirculation portion which connects said purified gas outlet with said cooling gas inlet, and at least one delivery portion which connects said heated gas outlet with said process gas inlet of said container; characterized by said condenser comprising evaporator means in which a cooling flow circulates to cool the process gas flow and by comprising molecular sieve dehumidification means arranged along said delivery portion for dehumidifying the process gas flow.
A method for producing an amorphous thin film, the method comprising: forming a multilayered metal layer in which a first metal layer, a second metal layer, and a third metal layer are sequentially provided by sequentially depositing a first metal, a second metal, and a third metal on one surface of a first substrate; positioning one surface of a second substrate so as to face the one surface of the first substrate; and forming an amorphous layer comprising the first metal, the second metal, and the third metal on the one surface of the second substrate by irradiating the first substrate with a laser in a direction from the other surface to the one surface of the first substrate wherein the multilayered metal layer has a thickness of 1.5 μm to 3.0 μm, and wherein a difference between the melting point of the first metal layer and the melting point of the second metal layer is 10°C to 100°C, and a difference between the melting point of the second metal layer and the melting point of the third metal layer is 100°C to 450°C. forming a multilayered metal layer in which a first metal layer, a second metal layer, and a third metal layer are sequentially provided by sequentially depositing a first metal, a second metal, and a third metal on one surface of a first substrate; positioning one surface of a second substrate so as to face the one surface of the first substrate; and forming an amorphous layer comprising the first metal, the second metal, and the third metal on the one surface of the second substrate by irradiating the first substrate with a laser in a direction from the other surface to the one surface of the first substrate wherein the multilayered metal layer has a thickness of 1.5 μm to 3.0 μm, and wherein a difference between the melting point of the first metal layer and the melting point of the second metal layer is 10°C to 100°C, and a difference between the melting point of the second metal layer and the melting point of the third metal layer is 100°C to 450°C.
A drive circuit configured to drive a load based on control signals from a control module, wherein the drive circuit comprises a high-side driver module and a delay module; the delay module is configured to output a delay signal of preset duration to the high-side driver module in a case that the control module is being reset; and the high-side driver module is configured to: according to the delay signal of preset duration, remain in a state within the preset duration, wherein the state is a working state of the high-side driver module before the control module is reset, and wherein the state comprises being on or off, wherein the preset duration is greater than a reset time of the control module, and is less than a duration of high-level driving that is able to be tolerated by the load, and wherein the drive circuit is configured to drive the load, and the load is connected to a drive power supply through the high-side driver module, characterized in that the high-side driver module comprises a first high-side driver unit and a second high-side driver unit, wherein a first terminal of the first high-side driver unit and a first terminal of the second high-side driver unit are both connected to the drive power supply, a second terminal of the first high-side driver unit and a second terminal of the second high-side driver unit are both connected to a first terminal of the load, the control module is connected to a control terminal of the first high-side driver unit, and the delay module is connected to a control terminal of the second high-side driver unit. the delay module is configured to output a delay signal of preset duration to the high-side driver module in a case that the control module is being reset; and the high-side driver module is configured to: according to the delay signal of preset duration, remain in a state within the preset duration, wherein the state is a working state of the high-side driver module before the control module is reset, and wherein the state comprises being on or off, wherein the preset duration is greater than a reset time of the control module, and is less than a duration of high-level driving that is able to be tolerated by the load, and wherein the drive circuit is configured to drive the load, and the load is connected to a drive power supply through the high-side driver module, characterized in that the high-side driver module comprises a first high-side driver unit and a second high-side driver unit, wherein a first terminal of the first high-side driver unit and a first terminal of the second high-side driver unit are both connected to the drive power supply, a second terminal of the first high-side driver unit and a second terminal of the second high-side driver unit are both connected to a first terminal of the load, the control module is connected to a control terminal of the first high-side driver unit, and the delay module is connected to a control terminal of the second high-side driver unit.
A fan for a gas turbine engine comprising: a fan (100; 200; 300) mounting a first group of blades and a second group of blades; said first group of blades and said second group of blades sharing a profile shape, wherein said first group of blades have a first laminate composition; wherein said second group of blades have a second laminate composition, distinct from the first laminate composition; and characterized in that the first and second laminate compositions of the first and second group of blades (104, 106) are chosen such that a frequency of a vibratory mode of the first group of blades is offset from a frequency of a vibratory mode of the second group of blades by at least 6%. a fan (100; 200; 300) mounting a first group of blades and a second group of blades; said first group of blades and said second group of blades sharing a profile shape, wherein said first group of blades have a first laminate composition; wherein said second group of blades have a second laminate composition, distinct from the first laminate composition; and characterized in that the first and second laminate compositions of the first and second group of blades (104, 106) are chosen such that a frequency of a vibratory mode of the first group of blades is offset from a frequency of a vibratory mode of the second group of blades by at least 6%.
A device for compression treatments of an inferior limb of a subject, said device comprising an inflatable element apt to being placed in contact with a portion of said inferior limb to exert a compression action on said portion of inferior limb, characterised in that said inflatable element comprises a rigid element positionable on the medial part of the thigh of said subject for the compression of the superficial femoral vein and/or of the deep veins of the femoral-popliteal segment of said subject, and wherein said rigid element has a length of 7-15 cm and a width of 7-15 cm.
A sterilizing device comprising a coating layer including a sterilizing catalyst, the sterilizing catalyst comprising: a metal oxide lattice including a metal oxide selected from Ce x Zr 1-x O 2 (0<x<1), CeO-ZrO 2 and a combination thereof, and an oxygen vacancy-inducing metal that is substituted for a portion of the metal oxide lattice or substituted for a portion of the metal oxide lattice and inserted in a space between the lattice, wherein the oxygen vacancy-inducing metal has an oxidation number lower than that of the metal of the metal oxide and is selected from silver (Ag), copper (Cu), zinc (Zn), cobalt (Co), nickel (Ni), manganese (Mn) and a combination thereof, and wherein a lattice frame of the metal oxide lattice including the metal oxide and having the substituted or substituted and inserted oxygen vacancy-inducing metal is identical to a lattice frame where the oxygen vacancy-inducing metal is not substituted or substituted and inserted. a metal oxide lattice including a metal oxide selected from Ce x Zr 1-x O 2 (0<x<1), CeO-ZrO 2 and a combination thereof, and an oxygen vacancy-inducing metal that is substituted for a portion of the metal oxide lattice or substituted for a portion of the metal oxide lattice and inserted in a space between the lattice, wherein the oxygen vacancy-inducing metal has an oxidation number lower than that of the metal of the metal oxide and is selected from silver (Ag), copper (Cu), zinc (Zn), cobalt (Co), nickel (Ni), manganese (Mn) and a combination thereof, and wherein a lattice frame of the metal oxide lattice including the metal oxide and having the substituted or substituted and inserted oxygen vacancy-inducing metal is identical to a lattice frame where the oxygen vacancy-inducing metal is not substituted or substituted and inserted.
An in vitro method for the prognosis of the tendency to develop metastasis and/or recurrence in a subject with cancer, said method comprising: (i) quantifying the copy number or amplification of a gene of interest in a sample of 5 said subject, wherein the gene of interest is selected from the group consisting of: VAT1L, CLEC3A, or the gene with Gene ID 645957 or quantifying the expression level, copy number or amplification of the gene of interest WWOX and (ii) comparing the expression level, copy number or amplification obtained in (i) with the expression level, copy number or degree of amplification of the gene of interest 10 in a control sample, wherein if the expression level, copy number or amplification of a gene of interest in said sample is increased with respect to the expression level, copy number or degree of amplification of the gene of interest in the control sample, then said subject has a greater tendency to develop metastasis and/or recurrence. (i) quantifying the copy number or amplification of a gene of interest in a sample of 5 said subject, wherein the gene of interest is selected from the group consisting of: VAT1L, CLEC3A, or the gene with Gene ID 645957 or quantifying the expression level, copy number or amplification of the gene of interest WWOX and (ii) comparing the expression level, copy number or amplification obtained in (i) with the expression level, copy number or degree of amplification of the gene of interest 10 in a control sample,
Cathode base (1, 21, 31) for an electrolytic cell for producing aluminium, comprising at least two cathode blocks (7, 27, 37, 47) and/or at least one cathode block (7, 27, 37, 47) and at least one side wall brick, which are arranged at a predetermined distance from one other, the gap (5, 25, 35) being filled by means of a filler (23, 33, 43), which can be arranged beforehand on at least one cathode block (7, 27, 37, 47) or at least one side wall brick, characterised in that the filler (23, 33, 43) is a compressed graphite plate which can be compressed further, consisting of expanded graphite and a graphite intercalation compound, the proportion of expanded graphite in the graphite plate being between 70 and 99.5 wt.% and the proportion of the graphite intercalation compound in the graphite plate being between 0.5 and 30 wt.%, and the intercalate of the graphite intercalation compound being an electron acceptor or an electron donor.
A microbial cell expressing a mutant AlkB enzyme, the mutant AlkB enzyme comprising at least one point mutation in the wild type sequence of AlkB, wherein the point mutation is at amino acid position V129 and/or T136 of the wild type AlkB enzyme, wherein the point mutation at amino acid V129 is selected from the group consisting of V129T and V129A, wherein the wild type AlkB comprises a polypeptide with sequence identity of at least 60% to a polypeptide SEQ ID NO: 1. wherein the point mutation at amino acid V129 is selected from the group consisting of V129T and V129A, wherein the wild type AlkB comprises a polypeptide with sequence identity of at least 60% to a polypeptide SEQ ID NO: 1.
A cleaning composition comprising: from 1% to 70%, by weight of the composition, of a surfactant system; from 0.001% to 1% by weight of an enzyme, and from 0.1% to 10%, preferably from 0.2% to 5%, by weight of the composition, of a polyetheramine of Formula: wherein R is selected from H or a C1-C6 alkyl group, each of k 1, k 2, and k 3 is independently selected from 0, 1, 2, 3, 4, 5, or 6, each of A 1, A 2, A 3, A 4, A 5, and A 6 is independently selected from a linear or branched alkylene group having from 2 to 18 carbon atoms or mixtures thereof, x ≥1, y ≥1, and z ≥1, and the sum of x+y+z is in the range of from 3 to 30, each of Z 1, Z 2, and Z 3 is independently selected from NH 2 or OH, where at least two of Z 1, Z 2, and Z 3 are NH 2, and the polyetheramine has a weight average molecular weight of from 150 to 900 grams/mole. from 1% to 70%, by weight of the composition, of a surfactant system; from 0.001% to 1% by weight of an enzyme, and from 0.1% to 10%, preferably from 0.2% to 5%, by weight of the composition, of a polyetheramine of Formula: wherein R is selected from H or a C1-C6 alkyl group, each of k 1, k 2, and k 3 is independently selected from 0, 1, 2, 3, 4, 5, or 6, each of A 1, A 2, A 3, A 4, A 5, and A 6 is independently selected from a linear or branched alkylene group having from 2 to 18 carbon atoms or mixtures thereof, x ≥1, y ≥1, and z ≥1, and the sum of x+y+z is in the range of from 3 to 30, each of Z 1, Z 2, and Z 3 is independently selected from NH 2 or OH, where at least two of Z 1, Z 2, and Z 3 are NH 2, and the polyetheramine has a weight average molecular weight of from 150 to 900 grams/mole. R is selected from H or a C1-C6 alkyl group, each of k 1, k 2, and k 3 is independently selected from 0, 1, 2, 3, 4, 5, or 6, each of A 1, A 2, A 3, A 4, A 5, and A 6 is independently selected from a linear or branched alkylene group having from 2 to 18 carbon atoms or mixtures thereof, x ≥1, y ≥1, and z ≥1, and the sum of x+y+z is in the range of from 3 to 30, each of Z 1, Z 2, and Z 3 is independently selected from NH 2 or OH, where at least two of Z 1, Z 2, and Z 3 are NH 2, and the polyetheramine has a weight average molecular weight of from 150 to 900 grams/mole.
Knife having a blade, wherein the blade has a cutting edge, which extends in a longitudinal direction of the blade, and has a knife back, which is situated opposite the cutting edge, and having a handle which is connected to the blade, wherein the handle, arranged above the knife back via a web, is rigidly connected to the blade in such a way that, with the blade positioned vertically, a vertical handle plane formed through the central longitudinal axis of the handle is positioned in a laterally offset manner adjacent to a cutting plane formed through the cutting edge, characterized in that the handle is arranged on the blade between the middle of the blade and the end region of the blade relative to the longitudinal direction of the blade.
A method of tailoring a bacterial composition for an individual having certain ABO blood group genotype based on the spectrum of bacteria found in the mucosal tissue of at least one individual with the same ABO blood group genotype, comprising: determining the ABO blood type of the recipient of the bacterial composition; determining the typical mucosal bacterial repertoire of the specific ABO blood type by determining which bacterial strains are more common in the intestine of individuals having: (a) B or AB blood group genotypes than individuals having A or O blood group genotypes; (b) A or AB blood group genotypes than individuals having B or O blood group genotypes; and/or (c) A, B or AB blood group genotypes than individuals having O blood group genotype; and manufacturing the bacterial composition based on the determined bacterial repertoire. determining the ABO blood type of the recipient of the bacterial composition; determining the typical mucosal bacterial repertoire of the specific ABO blood type by determining which bacterial strains are more common in the intestine of individuals having: (a) B or AB blood group genotypes than individuals having A or O blood group genotypes; (b) A or AB blood group genotypes than individuals having B or O blood group genotypes; and/or (c) A, B or AB blood group genotypes than individuals having O blood group genotype; and (a) B or AB blood group genotypes than individuals having A or O blood group genotypes; (b) A or AB blood group genotypes than individuals having B or O blood group genotypes; and/or (c) A, B or AB blood group genotypes than individuals having O blood group genotype; and manufacturing the bacterial composition based on the determined bacterial repertoire.
An inkjet ink comprising: a first solvent; a dye soluble in the first solvent; 0.1 wt. % to 1 wt. % of the ink of a perfluoropolyether; and 0.1 wt. % to 3 wt. % of the ink of a leveling agent dissolved in the ink, wherein the leveling agent comprises an isoalkane, n-decane or 1-dodecene. a first solvent; a dye soluble in the first solvent; 0.1 wt. % to 1 wt. % of the ink of a perfluoropolyether; and 0.1 wt. % to 3 wt. % of the ink of a leveling agent dissolved in the ink, 0.1 wt. % to 1 wt. % of the ink of a perfluoropolyether; and 0.1 wt. % to 3 wt. % of the ink of a leveling agent dissolved in the ink,
A gemstone comprising: - a crown comprising a plurality of crown facets (11, 12) and a table, - a girdle, and - a pavilion comprising a plurality of pavilion facets (13, 14), - characterized in that - a crown angle (α) is between 34.5° and 35.5°, preferably 35°, and a pavilion angle (β) is between 40° and 41°, preferably between 40.2° and 40.8°, particularly preferably 40.5°, and - the sum of the crown facets (11, 12) and the pavilion facets (13, 14) is thirty-six or twenty-four facets. - a crown comprising a plurality of crown facets (11, 12) and a table, - a girdle, and - a pavilion comprising a plurality of pavilion facets (13, 14), - characterized in that - a crown angle (α) is between 34.5° and 35.5°, preferably 35°, and a pavilion angle (β) is between 40° and 41°, preferably between 40.2° and 40.8°, particularly preferably 40.5°, and - the sum of the crown facets (11, 12) and the pavilion facets (13, 14) is thirty-six or twenty-four facets.