mhurhangee/ep-ind-claims huggingface dataset:
Coated gas turbine engine part comprising a substrate and at least one calcium-magnesium-alumino-silicate (CMAS) protection layer present on said substrate, the protective layer comprising a first phase of a material capable of forming an apatite or anorthite phase in the presence of calcium-magnesium-aluminosilicates (CMAS) and a second phase comprising particles of at least one rare-earth RE a silicate dispersed in the first phase, characterized in that the material of the first phase capable of forming phases apatite or anorthite phases is a calcium-magnesium-alumino-silicate (CMAS) protection material and corresponds to one of the following materials or a mixture of several of the following materials: rare-earth zirconates RE b 2 Zr 2 O 7, where RE b = Y (yttrium), La (lanthanum), Ce (cerium), Pr (praseodymium), Nd (neodymium), Pm (promethium), Sm (samarium), Eu (europium), Gd (gadolinium), Tb (terbium), Dy (dysprosium), Ho (holmium), Er (erbium), Tm (thulium), Yb (ytterbium), Lu (lutecium), fully stabilized zirconia, delta phases A 4 B 3 O 12, where A= Y → Lu and B = Zr, Hf, composites Y 2 O 3 with ZrO 2, yttrium and aluminium garnets, composites YSZ-Al 2 O 3 or YSZ-Al 2 O 3 -TiO 2.
A transmitter for an optical telecommunication system of the WDM type, using multiple wavelengths, characterised in that it includes: an encoder, called a chromato-temporal encoder, transforming each block of data to be transmitted d 1,..., d M into a code matrix: C = c 1, 1 II c 2, 1 II ⋯ c N, 1 II c 1, 1 ⊥ c 2, 1 ⊥ ⋯ c N, 1 ⊥ c 1, 2 II c 2, 2 II ⋯ c N, 2 II c 1, 2 ⊥ c 2, 2 ⊥ ⋯ c N, 2 ⊥ ⋮ ⋮ ⋮ ⋮ c 1, T II c 2, T II ⋯ c N, T II c 1, T ⊥ c 2, T ⊥ ⋯ c N, T ⊥ where each element of the matrix relates to one channel use and one wavelength of the said multiple wavelengths, and to a polarisation direction; multiple polarisers, associated respectively with the said wavelengths, where each polariser polarises a laser beam at a wavelength in two polarisation directions; multiple modulators (321, 322), where each modulator modulates a laser beam at a wavelength, polarised in a polarisation direction, during a channel use by means of the corresponding matrix element, where the said two directions of each wavelength are modulated by this means; a multiplexer able to multiplex the laser beams polarised and modulated in this manner in an optical fibre. an encoder, called a chromato-temporal encoder, transforming each block of data to be transmitted d 1,..., d M into a code matrix: C = c 1, 1 II c 2, 1 II ⋯ c N, 1 II c 1, 1 ⊥ c 2, 1 ⊥ ⋯ c N, 1 ⊥ c 1, 2 II c 2, 2 II ⋯ c N, 2 II c 1, 2 ⊥ c 2, 2 ⊥ ⋯ c N, 2 ⊥ ⋮ ⋮ ⋮ ⋮ c 1, T II c 2, T II ⋯ c N, T II c 1, T ⊥ c 2, T ⊥ ⋯ c N, T ⊥ where each element of the matrix relates to one channel use and one wavelength of the said multiple wavelengths, and to a polarisation direction; multiple polarisers, associated respectively with the said wavelengths, where each polariser polarises a laser beam at a wavelength in two polarisation directions; multiple modulators (321, 322), where each modulator modulates a laser beam at a wavelength, polarised in a polarisation direction, during a channel use by means of the corresponding matrix element, where the said two directions of each wavelength are modulated by this means; a multiplexer able to multiplex the laser beams polarised and modulated in this manner in an optical fibre.
A horizontal-pull coating film transferring tool comprising, within a case, a supply reel on which a transfer tape is rolled, a transfer head for transferring, to a transfer-destination surface, a transfer tape that is pulled from the supply reel, a take-up reel for rolling up the transfer tape after transferring, and a power transmitting mechanism for causing the supply reel and the take-up reel to operate in coordination, structured so that: a base member wherein a transfer head is attached, either integrally or replaceably through a cartridge system, to the front end, and wherein a rotation supporting shaft (8, 13) for the supply reel and the take-up reel is disposed so as to be substantially perpendicular to the direction of a pressing edge portion on the front end in the transfer head, for pressing the transfer tape against the transfer-destination surface, characterized in that the base member, wherein a rotation locking member having a supply reel engaging pawl able to lock the rotation of the supply reel is disposed, in the back half portion, so as to operate either directly or through a linkage, is supported between the transfer head and the rotation locking member so as to be able to rotate on a base member pivoting supporting portion that is provided in a prescribed position in the case, is structured so that, through an elastic return mechanism between the base member and the case, the rotational lock of the supply reel is released through rotation of the base member when the transfer head is pressed against the transfer-destination surface and the rotation of the supply reel is locked through the base member returning to the original position through the elastic return mechanism. a base member wherein a transfer head is attached, either integrally or replaceably through a cartridge system, to the front end, and wherein a rotation supporting shaft (8, 13) for the supply reel and the take-up reel is disposed so as to be substantially perpendicular to the direction of a pressing edge portion on the front end in the transfer head, for pressing the transfer tape against the transfer-destination surface, characterized in that the base member, wherein a rotation locking member having a supply reel engaging pawl able to lock the rotation of the supply reel is disposed, in the back half portion, so as to operate either directly or through a linkage, is supported between the transfer head and the rotation locking member so as to be able to rotate on a base member pivoting supporting portion that is provided in a prescribed position in the case, is structured so that, through an elastic return mechanism between the base member and the case, the rotational lock of the supply reel is released through rotation of the base member when the transfer head is pressed against the transfer-destination surface and the rotation of the supply reel is locked through the base member returning to the original position through the elastic return mechanism.
An isolated eukaryotic host cell for recombinant production of a product of interest, wherein the effect of the expression product of gene C12orf35 is impaired in said cell because functional expression of gene C12orf35 is reduced or eliminated by gene knock-out, gene mutation, gene deletion, gene silencing or a combination of any the foregoing, wherein gene mutation is selected from one or more frameshift mutations in the coding sequence and/or one or more introduced stop codons in the coding sequence, wherein gene silencing is achieved by antisense molecules or by molecules that mediate RNA interference comprised in the cell, wherein the C12orf35 gene is a gene encoding a protein that shares at least 70% identity with one or more of the amino acid sequences shown in SEQ ID NO: 1 to 7 or the protein encoded by SEQ ID NO: 8, and wherein the cell comprises at least one heterologous polynucleotide encoding the product of interest comprised in an expression cassette, wherein the product of interest is a polypeptide selected from a therapeutic polypeptide and a diagnostic polypeptide. wherein gene mutation is selected from one or more frameshift mutations in the coding sequence and/or one or more introduced stop codons in the coding sequence, wherein gene silencing is achieved by antisense molecules or by molecules that mediate RNA interference comprised in the cell,
A method comprising: determining a volume of a box; determining a content of the box, a largest dimension of the content, and a smallest dimension of the content; determining a void volume based at least in part on the volume of the box and a volume of the content of the box; characterized in comprising: determining an average fill aspect ratio by dividing the largest dimension by the smallest dimension; determining a filled ratio comprising a percentage of the volume of the box occupied by the content of the box; and determining a packing element requirement based at least in part on average fill aspect ratio, the filled ratio, and the void volume. determining a volume of a box; determining a content of the box, a largest dimension of the content, and a smallest dimension of the content; determining a void volume based at least in part on the volume of the box and a volume of the content of the box; characterized in comprising: determining an average fill aspect ratio by dividing the largest dimension by the smallest dimension; determining a filled ratio comprising a percentage of the volume of the box occupied by the content of the box; and determining a packing element requirement based at least in part on average fill aspect ratio, the filled ratio, and the void volume. determining an average fill aspect ratio by dividing the largest dimension by the smallest dimension; determining a filled ratio comprising a percentage of the volume of the box occupied by the content of the box; and determining a packing element requirement based at least in part on average fill aspect ratio, the filled ratio, and the void volume.
A method of obtaining and maintaining a neural plate stem cell (NPSC) in a pre-patterning state, comprising: (a) providing a pluripotent cell or primitive neurectodermal cell; (b) culturing the cell in the presence of FGF4; (c) thereby obtaining a neural plate stem cell, and (d) maintaining the neural plate stem cell in a pre-patterning state by culture in the presence of FGF4, wherein the "pre-patterning state" is a state where the NPSC expresses the marker Brn-2 and does not express the neurogenic bHLH factors Ngn2 and MASH1. (a) providing a pluripotent cell or primitive neurectodermal cell; (b) culturing the cell in the presence of FGF4; (c) thereby obtaining a neural plate stem cell, and (d) maintaining the neural plate stem cell in a pre-patterning state by culture in the presence of FGF4, wherein the "pre-patterning state" is a state where the NPSC expresses the marker Brn-2 and does not express the neurogenic bHLH factors Ngn2 and MASH1.
A process for improving the ability of a recombinant non-toxic bacterial peptide to stimulate an immune response, wherein the recombinant non-toxic bacterial peptide is selected from the group consisting of: (i) a non-toxic fragment of a Clostridium botulinum neurotoxin (BoNT) peptide, wherein said non-toxic fragment is LH N; and (ii) a non-toxic fragment comprising at least 200 contiguous amino acid residues of a Clostridium difficile toxin peptide selected from a C. difficile Toxin A peptide, a C. difficile Toxin B peptide, and a C. difficile binary toxin peptide; the process comprising exposing the recombinant non-toxic bacterial peptide to 0.2% formaldehyde at 35°C for 24 hours, to introduce intra-molecular cross-linking into the recombinant non-toxic bacterial peptide. (i) a non-toxic fragment of a Clostridium botulinum neurotoxin (BoNT) peptide, wherein said non-toxic fragment is LH N; and (ii) a non-toxic fragment comprising at least 200 contiguous amino acid residues of a Clostridium difficile toxin peptide selected from a C. difficile Toxin A peptide, a C. difficile Toxin B peptide, and a C. difficile binary toxin peptide;
A method for operating a hybrid vehicle which has an internal combustion engine and an electric drive provided to generate propulsion of the vehicle, the vehicle either being driven - in a first operating mode only by the electric drive or - in a second operating mode by the internal combustion engine and by the electric drive or - in a third operating mode only by the internal combustion engine, wherein a desired drive torque is preset, and the first operating mode is maintained at least in some operating conditions even if the desired drive torque is greater than a maximum drive torque (M EM, max, current) which can be currently provided by the electric machine, characterised in that the first operating mode is maintained as long as the desired drive torque is greater by at most a preset differential drive torque (M Diff, current) than the maximum drive torque (M EM, max, current) which can be currently provided by the electric machine. - in a first operating mode only by the electric drive or - in a second operating mode by the internal combustion engine and by the electric drive or - in a third operating mode only by the internal combustion engine, wherein
A method for reducing organic phosphorus acid content in an effluent water stream, comprising: providing an effluent water stream comprising one or more organic phosphorus acids and one or more inorganic phosphates; adjusting the effluent water stream to a pH between 4 and 6; and adding a metal salt to the adjusted effluent water stream under conditions effective to form a precipitant with the one or more organic phosphorus acids and thereby reducing the amount of organic phosphorus acids contained therein; wherein the organic phosphorus acid is selected from the group consisting of methyl phosphonic acid and dimethyl phosphinic acid; wherein the metal salt is ferric chloride; wherein the molar ratio of the iron to the phosphorus is from 2:1 to 3:1; and wherein the temperature ranges from 15 °C to 35 °C. providing an effluent water stream comprising one or more organic phosphorus acids and one or more inorganic phosphates; adjusting the effluent water stream to a pH between 4 and 6; and adding a metal salt to the adjusted effluent water stream under conditions effective to form a precipitant with the one or more organic phosphorus acids and thereby reducing the amount of organic phosphorus acids contained therein; wherein the organic phosphorus acid is selected from the group consisting of methyl phosphonic acid and dimethyl phosphinic acid; wherein the metal salt is ferric chloride; wherein the molar ratio of the iron to the phosphorus is from 2:1 to 3:1; and wherein the temperature ranges from 15 °C to 35 °C.
A coating material base for a, in particular matte, facade paint or paint, containing fillers comprising solid spherical particles with an average diameter in the range of 50 μm to 200 μm, selected from the group consisting of ceramic, quartz, corundum and glass particles or mixtures thereof, and as an additional filler at least one siliceous filler, as well as binders, comprising at least one binder polymer, wherein the binder polymer comprises at least one polysiloxane resin present in an emulsion or at least one (meth)acrylate-based (co)polymer present in an aqueous polymer dispersion or an aqueous binder dispersion based on vinyl esters, wherein the coating material base does not include any carbonate fillers or includes only up to 30% by weight of carbonate fillers.
An absorbent article comprising: a liquid permeable topsheet, a liquid impermeable backsheet, and an absorbent core positioned between said topsheet and backsheet, wherein the absorbent core comprises an absorbent material, said absorbent material comprising a mixture, or blend, of cellulose fibers and superabsorbent polymers, wherein the absorbent core comprises at least a top layer and a bottom layer wherein the bottom layer is positioned between the top layer and the backsheet, and wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material therein, characterized in that the at least top layer and a bottom layer are directly stacked one on top of the other to form a contact zone (Zc) where the top layer directly adjoins to the bottom layer, and wherein the top layer comprises one or more first superabsorbent polymer grades and the bottom layer comprises one or more second superabsorbent polymer grades, wherein the first superabsorbent polymer grades have an AUL that is greater than the AUL of second superabsorbent polymer grades, and wherein the first superabsorbent polymer grades have an AUL, as measured according to the test method herein, of greater than 15 g/g, and wherein the top layer has a first ratio of SAP1 to cellulose fibers and the bottom layer has a second ratio of SAP2 to cellulose fibers and in that R2 is less than R1. a liquid permeable topsheet, a liquid impermeable backsheet, and an absorbent core positioned between said topsheet and backsheet, wherein the absorbent core comprises an absorbent material, said absorbent material comprising a mixture, or blend, of cellulose fibers and superabsorbent polymers, wherein the absorbent core comprises at least a top layer and a bottom layer wherein the bottom layer is positioned between the top layer and the backsheet, and wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material therein, characterized in that the at least top layer and a bottom layer are directly stacked one on top of the other to form a contact zone (Zc) where the top layer directly adjoins to the bottom layer, and wherein the top layer comprises one or more first superabsorbent polymer grades and the bottom layer comprises one or more second superabsorbent polymer grades, wherein the first superabsorbent polymer grades have an AUL that is greater than the AUL of second superabsorbent polymer grades, and wherein the first superabsorbent polymer grades have an AUL, as measured according to the test method herein, of greater than 15 g/g, and wherein the top layer has a first ratio of SAP1 to cellulose fibers and the bottom layer has a second ratio of SAP2 to cellulose fibers and in that R2 is less than R1.
A construction machine, comprising: a construction machine main body (2, 5); an operating mechanism provided at said construction machine main body (2, 5); and a working lamp unit (7a, 7b) attached to a sidewall of said construction machine main body (2, 5), said working lamp unit (7a, 7b) having a light source (8a, 8b) and a bracket including a downward illuminating portion that covers at least an upper part of said light source (8a, 8b) and that protrudes more in light illumination direction than a lens surface of said light source (8a, 8b), characterized in that the downward illuminating portion is inclined downward with respect to a horizontal direction, and a lower surface of the downward illuminating portion is used as a reflective surface so that light emitted from the light source (8a, 8b) is reflected on said lower surface and is directed downward. a construction machine main body (2, 5); an operating mechanism provided at said construction machine main body (2, 5); and a working lamp unit (7a, 7b) attached to a sidewall of said construction machine main body (2, 5), said working lamp unit (7a, 7b) having a light source (8a, 8b) and a bracket including a downward illuminating portion that covers at least an upper part of said light source (8a, 8b) and that protrudes more in light illumination direction than a lens surface of said light source (8a, 8b), characterized in that the downward illuminating portion is inclined downward with respect to a horizontal direction, and a lower surface of the downward illuminating portion is used as a reflective surface so that light emitted from the light source (8a, 8b) is reflected on said lower surface and is directed downward.
An object-detection system for an automated vehicle, said system comprising: an object-detector used to observe a field-of-view proximate to a host-vehicle; the object-detector including a plurality of type of sensors such as lidar, camera and/or radar, a digital-map used to indicate a roadway-characteristic proximate to the host-vehicle; and a controller configured to define a region-of-interest within the field-of-view based on the roadway-characteristic, and preferentially-process information from the object-detector that corresponds to the region-of-interest, characterized in that the controller is configured to determine the type of sensors to use within the ROI based on the roadway-characteristic. an object-detector used to observe a field-of-view proximate to a host-vehicle; the object-detector including a plurality of type of sensors such as lidar, camera and/or radar, a digital-map used to indicate a roadway-characteristic proximate to the host-vehicle; and a controller configured to define a region-of-interest within the field-of-view based on the roadway-characteristic, and preferentially-process information from the object-detector that corresponds to the region-of-interest, characterized in that the controller is configured to determine the type of sensors to use within the ROI based on the roadway-characteristic.
An encapsulated component (600; 700; 804; 806) of an electromechanical assembly (600; 700; 800) for an elevator system, the encapsulated component (600; 700; 804; 806) comprising: an encapsulating body (602; 702; 812); and a component assembly (601; 701; 814) arranged within the encapsulating body (602; 702; 812), wherein at least some parts of the component assembly (601; 701; 814) are contained within a material of the encapsulating body (602; 702; 812); characterized in that the encapsulating body (602; 702) comprises a main body (610; 710), a first mounting extension (614; 714) extending from a first end (612; 712) of the main body (610; 710), and a second mounting extension (618, 718) extending from a second end (616; 716) of the main body; and/or wherein the encapsulating body comprises a component integrator configured to receive a connecting pin. an encapsulating body (602; 702; 812); and a component assembly (601; 701; 814) arranged within the encapsulating body (602; 702; 812), wherein at least some parts of the component assembly (601; 701; 814) are contained within a material of the encapsulating body (602; 702; 812); characterized in that the encapsulating body (602; 702) comprises a main body (610; 710), a first mounting extension (614; 714) extending from a first end (612; 712) of the main body (610; 710), and a second mounting extension (618, 718) extending from a second end (616; 716) of the main body; and/or wherein the encapsulating body comprises a component integrator configured to receive a connecting pin.