mhurhangee/ep-ind-claims huggingface dataset:
Insulation system (1, 21) for thermoacoustic insulation of an exhaust gas component (200, 202) to be insulated, comprising: a fiber molded part (12, 22) having a surface (12.1, 22.1) facing away from the exhaust gas component (200, 202) to be insulated, wherein the surface (12.1, 22.1) facing away is at least in part jacketed with a cladding (14, 24), and having an insulation surface (12.2, 22.2) facing the exhaust gas component (200, 202) to be insulated, wherein the fiber molded part (12, 22) is applicable to the exhaust gas component (200, 202) to be insulated in such a way, that a plurality of closed cavities (16, 26) are formed between a portion of the insulation surface (12.2, 22.2) of said fiber molded part (12, 22) and the component (200, 202) to be insulated; wherein a predefined proportion of the insulation surface (12.2, 22.2) of the fiber molded part (12, 22) is in contact with the exhaust gas component (200, 202) to be insulated, wherein the predefined proportion amounts to at least 10% and at most 90%, in particular at least 25% and at most 55%; wherein the insulating surface (12.2, 22.2) facing the exhaust gas component (200, 202) to be insulated comprises one or more predefined indentations. a fiber molded part (12, 22) having a surface (12.1, 22.1) facing away from the exhaust gas component (200, 202) to be insulated, wherein the surface (12.1, 22.1) facing away is at least in part jacketed with a cladding (14, 24), and having an insulation surface (12.2, 22.2) facing the exhaust gas component (200, 202) to be insulated, wherein the fiber molded part (12, 22) is applicable to the exhaust gas component (200, 202) to be insulated in such a way, that a plurality of closed cavities (16, 26) are formed between a portion of the insulation surface (12.2, 22.2) of said fiber molded part (12, 22) and the component (200, 202) to be insulated; wherein a predefined proportion of the insulation surface (12.2, 22.2) of the fiber molded part (12, 22) is in contact with the exhaust gas component (200, 202) to be insulated, wherein the predefined proportion amounts to at least 10% and at most 90%, in particular at least 25% and at most 55%; wherein the insulating surface (12.2, 22.2) facing the exhaust gas component (200, 202) to be insulated comprises one or more predefined indentations.
A tensioning device for the belt or chain drive of a stirred ball mill comprising a tensioning lever arranged on a rotatably configured tensioning foot comprising a tensioning wheel, wherein a rotatable adjusting disk comprising a guide contour is arranged on the rotatable tensioning foot, wherein the position of the adjusting disk can be secured on machine housing by means of at least one securing means assigned to the guide contour of the adjusting disk, wherein the tensioning device comprises a longitudinally variable tensioning element for rotating the adjusting disk relative to the machine housing of the stirred ball mill.
Domestic appliance for the care of washed articles, with a container for receiving washed articles, a process air supply which is connected to the container, with process air flowing through the container, with a first heat exchanger which is coupled to the process air supply and is embodied for dehumidifying the process air exiting the container and a second heat exchanger which is arranged in the process air supply for heating up the process air, as well as with a heat pump (4, 5, 6, 7, 8, 9) with a working substance circuit, in which heat pump (4, 5, 6, 7, 8) the first heat exchanger forms an evaporator and the second heat exchanger forms a condenser, characterised in that a supplementary heat exchanger for lint filtering is arranged in the process air supply with cooling elements (13 to 16) of the working substance circuit lying against an outer side of the supplementary heat exchanger and the supplementary heat exchanger being mechanically connected to a pre-tensioning device, especially a spring element, which presses the supplementary heat exchanger onto the cooling elements (13 to 16).
A method of operating a system on chip comprising a bootable processor, the method comprising the steps of: executing a bootloader and measuring electrical power consumed by the processor during booting; converting the measured electrical power into power trace digital data and generating unique power characteristic data out of the power trace digital data; verifying the unique power characteristic data; reconstructing a device key out of the unique power characteristic data and the helper data, wherein averaged power characteristic data measured during an enrolment phase and the device key provided by a manufacturer are used for generation of the helper data during the enrolment phase; and after reconstructing the device key decrypting software, which is encrypted with the device key and stored on memory; and executing the decrypted software. executing a bootloader and measuring electrical power consumed by the processor during booting; converting the measured electrical power into power trace digital data and generating unique power characteristic data out of the power trace digital data; verifying the unique power characteristic data; reconstructing a device key out of the unique power characteristic data and the helper data, wherein averaged power characteristic data measured during an enrolment phase and the device key provided by a manufacturer are used for generation of the helper data during the enrolment phase; and after reconstructing the device key decrypting software, which is encrypted with the device key and stored on memory; and executing the decrypted software.
A method for adhering a catechol and quinone functionalised layer to a substrate wherein the method comprises the steps of: a) providing a substrate, b) providing a precursor which comprises a vinyl monomer or a non-vinylic molecule, substituted by an unprotected catechol group, with a vinylic or a non-vinylic co-monomer; characterized by the additional step: c) applying a plasma to the precursor and the substrate in order to form a coating comprising a catechol and quinone functionalised layer on the substrate. a) providing a substrate, b) providing a precursor which comprises a vinyl monomer or a non-vinylic molecule, substituted by an unprotected catechol group, with a vinylic or a non-vinylic co-monomer;
A producing method of a grain-oriented electrical steel sheet, the method comprising: forming a preferentially-deformable portion in an end region of a steel sheet over an entire length of the steel sheet in the rolling direction thereof so as to be parallel with the rolling direction of the steel sheet; coiling the steel sheet; and performing a final annealing to the coiled steel sheet after disposing the steel sheet in a manner such that the end region becomes a lower side of the steel sheet, wherein the preferentially-deformable portion is preferentially deformed during the final annealing; wherein the preferentially-deformable portion is formed by irradiation of a laser beam, wherein a groove is formed in the preferentially-deformable portion on a single face or both faces of the steel sheet; wherein a width of the groove is from 0.03 to 10 mm; and wherein a depth d of the groove and a thickness t of the steel sheet satisfy an equation 0.05 ≤ d/t ≤ 0.7. forming a preferentially-deformable portion in an end region of a steel sheet over an entire length of the steel sheet in the rolling direction thereof so as to be parallel with the rolling direction of the steel sheet; coiling the steel sheet; and performing a final annealing to the coiled steel sheet after disposing the steel sheet in a manner such that the end region becomes a lower side of the steel sheet, wherein the preferentially-deformable portion is preferentially deformed during the final annealing; wherein the preferentially-deformable portion is formed by irradiation of a laser beam, wherein a groove is formed in the preferentially-deformable portion on a single face or both faces of the steel sheet; wherein a width of the groove is from 0.03 to 10 mm; and wherein a depth d of the groove and a thickness t of the steel sheet satisfy an equation 0.05 ≤ d/t ≤ 0.7.
A computer implemented method comprising gamut mapping a current color from a first color gamut towards a second color gamut, the gamut mapping comprising, in a plane of constant hue, mapping chroma of the current color from the first color gamut towards the second color gamut at a constant lightness value, wherein that mapping chroma further comprises: obtaining a target color on a second color gamut boundary, wherein the lightness of the target color is greater than or equal to the lightness of a color of maximum chroma of the first color gamut and wherein the lightness of the target color is lower than the lightness of a color of maximum chroma of the second color gamut; and characterized in that: in case where the lightness of the current color is greater than the lightness of the target color, mapping, at a constant lightness value, the chroma of a color on a first color gamut boundary by a decreasing function of chroma applied to lightness, wherein endpoints of the decreasing function of chroma applied to the lightness of the target color and to the lightness of white are, respectively, chroma of the target color and chroma of the white.
Transport system for transporting livestock, in particular poultry such as chicks, wherein the transport system comprises a transport compartment with an air entry side and an air exit side, wherein the transport system further comprises a ventilation system for supplying air to the transport compartment at the air entry side, wherein the transport system is provided with positioning elements which are arranged for receiving and holding a plurality of boxes for said livestock in a transport position in the transport compartment between the air entry side and the air exit side of the transport compartment, characterized in that the positioning elements are arranged to fix the boxes in the transport position during transport in a first row and a second row that converge towards each other in a direction from the air entry side towards the air exit side of the transport compartment.
A laminated nonwoven fabric having a skin layer and a base material layer, the skin layer having a nonwoven fabric A, the nonwoven fabric A having fibers made of polyamide and/or fibers made of polyethylene terephthalate, comprising 20 to 40% by mass of a thermoplastic nanofiber having a number average single fiber diameter of 150 to 700 nm, relative to the whole nonwoven fabric A, being constituted by laminating a nanofiber layer and layer of fibers thicker than nanofibers, having a density of 100 to 500 kg/m3, a thickness of 0.5 to 2.5 mm measured in accordance with JIS L 1096, and an air permeability of 4 to 40 cm 3 /cm 2 /s measured in accordance with JIS L 1096, and having a pore diameter dispersion degree of 1 to 20 in the range of the fine pore size distribution frequency exceeding 0 to 10 μm or less measured in accordance with the method specified in ASTM F316-86, and a pore diameter dispersion degree of 15 to 60 in the range of 10 to 20 μm; and the base material layer having a nonwoven fabric B, the nonwoven fabric B containing polyethylene terephthalate fiber and having a basis weight of 200 to 500 g/m 2 measured in accordance with JIS L 1913 and a thickness of 12 to 30 mm. the skin layer having a nonwoven fabric A, the nonwoven fabric A having fibers made of polyamide and/or fibers made of polyethylene terephthalate, comprising 20 to 40% by mass of a thermoplastic nanofiber having a number average single fiber diameter of 150 to 700 nm, relative to the whole nonwoven fabric A, being constituted by laminating a nanofiber layer and layer of fibers thicker than nanofibers, having a density of 100 to 500 kg/m3, a thickness of 0.5 to 2.5 mm measured in accordance with JIS L 1096, and an air permeability of 4 to 40 cm 3 /cm 2 /s measured in accordance with JIS L 1096, and having a pore diameter dispersion degree of 1 to 20 in the range of the fine pore size distribution frequency exceeding 0 to 10 μm or less measured in accordance with the method specified in ASTM F316-86, and a pore diameter dispersion degree of 15 to 60 in the range of 10 to 20 μm; and the base material layer having a nonwoven fabric B, the nonwoven fabric B containing polyethylene terephthalate fiber and having a basis weight of 200 to 500 g/m 2 measured in accordance with JIS L 1913 and a thickness of 12 to 30 mm.
Modular basket element for the composition of a display unit for cylindrical products, comprising a perforated base part, a peripheral shell and a central tubular body rising up from said base part and projecting beyond the height of the shell, said shell having internally a plurality of concave seats suitable for housing the products, said seats forming externally convexities separated by recesses, characterised in that said tubular body has a conical shape tapering upwards so as to allow the stacking of identical basket elements and in that said peripheral shell splays upwards in such a way that the products housed in the seats are slightly tilted outwards so that they can be taken out easily.
A shield continuity testing device, comprising: a transmitter configured to transmit a first signal in common mode over a plurality of conductors of a cable or cabling installation having a shield, the transmitter being configured to transmit the first signal in the common mode at a first end of the plurality of conductors; a receiver configured to receive a plurality of second signals representative of the first signal at a second end of the plurality of conductors, respectively, and output data representative of the plurality of second signals; and a processor configured to: receive the data representative of the plurality of second signals; determine a common mode insertion loss for the cable or cabling installation based on the plurality of second signals; determine, based on the common mode insertion loss, whether the shield is continuous or discontinuous; and output data representative of whether the shield is continuous or discontinuous. a transmitter configured to transmit a first signal in common mode over a plurality of conductors of a cable or cabling installation having a shield, the transmitter being configured to transmit the first signal in the common mode at a first end of the plurality of conductors; a receiver configured to receive a plurality of second signals representative of the first signal at a second end of the plurality of conductors, respectively, and output data representative of the plurality of second signals; and a processor configured to: receive the data representative of the plurality of second signals; determine a common mode insertion loss for the cable or cabling installation based on the plurality of second signals; determine, based on the common mode insertion loss, whether the shield is continuous or discontinuous; and output data representative of whether the shield is continuous or discontinuous. receive the data representative of the plurality of second signals; determine a common mode insertion loss for the cable or cabling installation based on the plurality of second signals; determine, based on the common mode insertion loss, whether the shield is continuous or discontinuous; and output data representative of whether the shield is continuous or discontinuous.
A fitting for conduits, comprising: a body, a nut and at least one conduit gripping device (358, 360), the body and nut being threaded so that when assembled on a conduit the body and nut can be tightened together using torque to produce a first relative axial stroke of the nut and body to effect conduit seal and grip, the body comprising a load bearing member that is integral with a neck of said body and includes an inboard radial wall and an outboard radial wall, and a tapered load bearing surface extending from the outboard radial wall for engagement with a tapered engaging surface of the nut, such that the load bearing member deflects under load when the load bearing member is engaged by the nut at the first relative axial stroke when the body and nut are tightened together, thereby changing a width of a gap between the load bearing member and a facing shoulder of the body, to permit tightening of the body and nut beyond the first relative axial stroke during a subsequent remake of the fitting. a body, a nut and at least one conduit gripping device (358, 360), the body and nut being threaded so that when assembled on a conduit the body and nut can be tightened together using torque to produce a first relative axial stroke of the nut and body to effect conduit seal and grip, the body comprising a load bearing member that is integral with a neck of said body and includes an inboard radial wall and an outboard radial wall, and a tapered load bearing surface extending from the outboard radial wall for engagement with a tapered engaging surface of the nut, such that the load bearing member deflects under load when the load bearing member is engaged by the nut at the first relative axial stroke when the body and nut are tightened together, thereby changing a width of a gap between the load bearing member and a facing shoulder of the body, to permit tightening of the body and nut beyond the first relative axial stroke during a subsequent remake of the fitting.
A kit for use in treating a solid tumor associated with ED-B in a subject, wherein the solid tumor associated with ED-B has presence and/or expression of ED-B, the kit comprising a biologically inert drug and a biologically active drug, wherein - the biologically active drug comprises a targeting moiety and a biologically active moiety; - the biologically inert drug comprises a targeting moiety and a biologically inert moiety; optionally the biologically inert drug and the biologically active drug have the same targeting moiety, wherein the biologically inert drug and the biologically active drug are mixed and prepared into a single preparation or composition, or the biologically inert drug and the biologically active drug are prepared into separate preparations or compositions, respectively, wherein the targeting moiety is an antibody or a binding fragment thereof against the Extra-domain B (ED-B) of fibronectin, wherein the biologically active moiety is selected from TNF-alpha, IL-2 or IL-12, wherein the biologically inert moiety is selected from the group consisting of an antibody constant region, albumin, and a polyethylene glycol, and wherein the biologically inert drug substantially has no biological activity relative to a biologically active drug, which means that the biologically inert drug does not have the pharmaceutical effect as the biologically active drug, or at the same administered dosage, its pharmaceutical effect may be neglected compared with the biologically active drug. - the biologically active drug comprises a targeting moiety and a biologically active moiety; - the biologically inert drug comprises a targeting moiety and a biologically inert moiety; optionally the biologically inert drug and the biologically active drug have the same targeting moiety, wherein the biologically inert drug and the biologically active drug are mixed and prepared into a single preparation or composition, or the biologically inert drug and the biologically active drug are prepared into separate preparations or compositions, respectively, wherein the targeting moiety is an antibody or a binding fragment thereof against the Extra-domain B (ED-B) of fibronectin, wherein the biologically active moiety is selected from TNF-alpha, IL-2 or IL-12, wherein the biologically inert moiety is selected from the group consisting of an antibody constant region, albumin, and a polyethylene glycol, and wherein the biologically inert drug substantially has no biological activity relative to a biologically active drug, which means that the biologically inert drug does not have the pharmaceutical effect as the biologically active drug, or at the same administered dosage, its pharmaceutical effect may be neglected compared with the biologically active drug.
An airbag module comprising a cover, a support member (40, 40a) matably configured with cover and being selected from a housing and a plate, a pyrotechnic inflator which includes a cylindrical member and a mounting flange extending about said cylindrical member of the inflator and being connected to the lower surface of the housing, and an airbag fitted within the space between the support member (40, 40a) and cover, the airbag inflating with gas provided by the inflator, characterized in that the support member (40, 40a) is made of a polymer or plastic materials, and a heat shield is positioned between a lower surface of the support member (40, 40a) and an upper complementary surface of cooperating inflator mounting flange, the heat shield protectively shielding said lower surface from the heat transfer from the inflator mounting flange to prevent said lower surface from melting.
A method for surface-modifying an object of a rubber vulcanizate or a thermoplastic elastomer, the method comprising: step 1 of forming polymerization initiation points on a surface of the object by absorbing a thioxantone compound on the surface of the object; and step 2 of radically polymerizing a deliquescent monomer starting from the polymerization initiation points by irradiation with ultraviolet light having a wavelength within the range of 300 to 400 nm, to grow polymer chains on the surface of the object, wherein the deliquescent monomer is at least one selected from the group consisting of zwitterionic monomers and alkali metal-containing monomers. step 1 of forming polymerization initiation points on a surface of the object by absorbing a thioxantone compound on the surface of the object; and step 2 of radically polymerizing a deliquescent monomer starting from the polymerization initiation points by irradiation with ultraviolet light having a wavelength within the range of 300 to 400 nm, to grow polymer chains on the surface of the object, wherein the deliquescent monomer is at least one selected from the group consisting of zwitterionic monomers and alkali metal-containing monomers.
A process for semipermanent straightening of human hair, comprising the following steps: a) application of an aqueous solution of Glyoxylic acid on hair, wherein said aqueous solution containing Glyoxylic acid is added to a mixture of Diacetyl and Acetoin; b) permanence of said solution in contact with hair for a time from 30 to 120 minutes; c) drying of hair with hair-dryer; d) hair straightening with hair-straightening iron, set at a temperature of 200 +/- 30 °C a) application of an aqueous solution of Glyoxylic acid on hair, wherein said aqueous solution containing Glyoxylic acid is added to a mixture of Diacetyl and Acetoin; b) permanence of said solution in contact with hair for a time from 30 to 120 minutes; c) drying of hair with hair-dryer; d) hair straightening with hair-straightening iron, set at a temperature of 200 +/- 30 °C