mhurhangee/ep-ind-claims huggingface dataset:
Method for filling of lacquer, comprising the following method steps of: A) providing a lacquer container containing lacquer and an opening valve arranged at an end portion of the lacquer container; B) providing a scale and a target container (empty or partially filled) positioned on the scale; C) taring the scale taking into account the tare of the target container; D) specifying a target weight and a target flow velocity; E) specifying a first valve position x1; F) starting to fill the target container with lacquer from the lacquer container by setting the opening valve to the first valve position x1; G) calculating a lacquer flow velocity taking into account at least one lacquer weight in the target container; H) comparing the lacquer flow velocity with the target flow velocity; J) adjusting the lacquer flow velocity by setting the opening valve to a valve position x2 = x1 + Δx1 if the lacquer flow velocity does not correspond to the target flow velocity; K) calculating a lacquer filling weight taking into account the current lacquer weight in the target container and the lacquer flow velocity; L) comparing the lacquer filling weight with the target weight; and M) closing the opening valve when the lacquer filling weight corresponds to the target weight within a tolerance weight range; characterized in that the method comprises the following further method steps of: N) determining an subsequent-dripping weight, and N1) storing the subsequent-dripping weight in a database; and wherein method step K is carried out taking into account at least one subsequent-dripping weight from the database. A) providing a lacquer container containing lacquer and an opening valve arranged at an end portion of the lacquer container; B) providing a scale and a target container (empty or partially filled) positioned on the scale; C) taring the scale taking into account the tare of the target container; D) specifying a target weight and a target flow velocity; E) specifying a first valve position x1; F) starting to fill the target container with lacquer from the lacquer container by setting the opening valve to the first valve position x1; G) calculating a lacquer flow velocity taking into account at least one lacquer weight in the target container; H) comparing the lacquer flow velocity with the target flow velocity; J) adjusting the lacquer flow velocity by setting the opening valve to a valve position x2 = x1 + Δx1 if the lacquer flow velocity does not correspond to the target flow velocity; K) calculating a lacquer filling weight taking into account the current lacquer weight in the target container and the lacquer flow velocity; L) comparing the lacquer filling weight with the target weight; and M) closing the opening valve when the lacquer filling weight corresponds to the target weight within a tolerance weight range; N) determining an subsequent-dripping weight, and N1) storing the subsequent-dripping weight in a database;
Aerodynamic structure for a wing or rudder device of an aircraft, having: a load-bearing structure; and an external skin; the load-bearing structure having, in the longitudinal direction, an immobile spar which extends from a root region to an outer end region; the load-bearing structure having, in the transverse direction, a plurality of adaptive framework segments which in each case consist of a multiplicity of triangular compartments in a row which are formed by fixed rod elements and adjustable-length actuating elements; the framework segments being connected to the immobile spar; at least part of the triangular compartments having one of the adjustable actuating elements at least on one side, with the result that the shape of the framework segments can be adjusted; the external skin being fastened in a retained manner to the framework segments; and an outer contour of the aerodynamic structure being variable at least in the transverse direction by way of adjusting of the shape of the frameworks. a load-bearing structure; and an external skin; the load-bearing structure having, in the longitudinal direction, an immobile spar which extends from a root region to an outer end region; the load-bearing structure having, in the transverse direction, a plurality of adaptive framework segments which in each case consist of a multiplicity of triangular compartments in a row which are formed by fixed rod elements and adjustable-length actuating elements; the framework segments being connected to the immobile spar; at least part of the triangular compartments having one of the adjustable actuating elements at least on one side, with the result that the shape of the framework segments can be adjusted; the external skin being fastened in a retained manner to the framework segments; and an outer contour of the aerodynamic structure being variable at least in the transverse direction by way of adjusting of the shape of the frameworks.
A thermal sublimation transfer image-receiving sheet comprising a receptive layer that is formed using a vinyl chloride resin latex comprising: a vinyl chloride homopolymer; an alkylbenzenesulfonate salt in an amount of more than 1 part by weight to 5 parts by weight per 100 parts by weight of the vinyl chloride homopolymer, and one higher fatty acid salt in an amount of 3.0 parts by weight or less per 100 parts by weight of the vinyl chloride homopolymer, wherein said higher fatty acid salt is potassium laurate. a vinyl chloride homopolymer; an alkylbenzenesulfonate salt in an amount of more than 1 part by weight to 5 parts by weight per 100 parts by weight of the vinyl chloride homopolymer, and one higher fatty acid salt in an amount of 3.0 parts by weight or less per 100 parts by weight of the vinyl chloride homopolymer, wherein said higher fatty acid salt is potassium laurate.
Stopper (100; 100') for closing a container, comprising a main body (1; 1') so shaped as to be removably housed and engaged in an opening of said container, and extending along a longitudinal axis thereof between two opposed base surfaces (2, 3) which face the outside and the inside of the containers, respectively, when said main body (1; 1') is housed and engaged in said opening, said stopper (100; 100') comprising a barrier element (4; 4') made from a material with high impermeability to gases and provided on a transverse surface portion (5") on a base surface of said stopper (100; 100') positioned transversely with respect to said longitudinal axis so as to intercept the flow of gas through said stopper (100; 100'), said barrier element (4; 4') being intended to reduce the passage of gas through said stopper, said barrier element (4, 4') comprising a plastic barrier layer (41; 43) made from polyisobutylene-based elastomers, preferably SIBS and/or TPV and/or TPU, characterized in that it further comprises a further barrier layer applied onto said barrier element so that the latter is enclosed between said further barrier layer and said body (1; 1'), said transverse surface portion (5") having a smaller extension than the transverse section of said body (1; 1') so that an attachment area for said further barrier layer is defined on said base surface.
A method of wireless communication, comprising: receiving a carrier aggregation, CA, configuration comprising a plurality of component carriers, CCs, the CA configuration grouping the plurality of CCs into a first set of one or more CCs (205-a) associated with a first control channel restriction and a second set of one or more CCs (205-b) associated with a second control channel restriction different from the first control channel restriction, wherein the first control channel restriction or the second control channel restriction, or both, comprises a decoding candidate restriction; monitoring a control channel of the first set of one or more CCs (205-a) according to the first control channel restriction; monitoring a control channel of the second set of one or more CCs (205-b) according to the second control channel restriction; wherein at least one of the first control channel restriction or the second control channel restriction comprises a restricted data allocation within a data field; and wherein monitoring the control channel of the first set of one or more CCs (205-a) or the control channel of the second set of one or more CCs (205-b) comprises decoding control channel messages based at least in part on a virtual CRC associated with the restricted data allocation. receiving a carrier aggregation, CA, configuration comprising a plurality of component carriers, CCs, the CA configuration grouping the plurality of CCs into a first set of one or more CCs (205-a) associated with a first control channel restriction and a second set of one or more CCs (205-b) associated with a second control channel restriction different from the first control channel restriction, wherein the first control channel restriction or the second control channel restriction, or both, comprises a decoding candidate restriction; monitoring a control channel of the first set of one or more CCs (205-a) according to the first control channel restriction; monitoring a control channel of the second set of one or more CCs (205-b) according to the second control channel restriction; wherein at least one of the first control channel restriction or the second control channel restriction comprises a restricted data allocation within a data field; and wherein monitoring the control channel of the first set of one or more CCs (205-a) or the control channel of the second set of one or more CCs (205-b) comprises decoding control channel messages based at least in part on a virtual CRC associated with the restricted data allocation.
An epoxy resin composition comprising: an epoxy resin; a curing agent; an inorganic filler; and a curing accelerator, wherein the curing accelerator includes an imidazole-based curing accelerator, wherein a content of the epoxy resin is equal to or more than 8% by mass and equal to or less than 20% by mass with respect to the total solid content of the epoxy resin composition, wherein a content of the imidazole-based curing accelerator is equal to or more than 4.0% by mass and equal to or less than 12.0% by mass with respect to the total solid content of the epoxy resin composition, wherein the inorganic filler comprises a first filler having an average particle diameter D50 equal to or more than 0.01 μm and equal to or less than 1 μm, a second filler having an average particle diameter D50 of more than 1 μm to 15 μm or less, and a third filler having an average particle diameter D50 of more than 15 μm and equal to or less than 50 μm, and wherein a maximum exothermic peak temperature in a DSC curve of the epoxy resin composition obtained in a case of elevating a temperature from 30°C to 200°C under a condition of a temperature elevating rate of 10°C/min using a differential scanning calorimeter is equal to or higher than 80°C and equal to or lower than 145°C. an epoxy resin; a curing agent; an inorganic filler; and a curing accelerator, wherein the curing accelerator includes an imidazole-based curing accelerator, wherein a content of the epoxy resin is equal to or more than 8% by mass and equal to or less than 20% by mass with respect to the total solid content of the epoxy resin composition, wherein a content of the imidazole-based curing accelerator is equal to or more than 4.0% by mass and equal to or less than 12.0% by mass with respect to the total solid content of the epoxy resin composition, wherein the inorganic filler comprises a first filler having an average particle diameter D50 equal to or more than 0.01 μm and equal to or less than 1 μm, a second filler having an average particle diameter D50 of more than 1 μm to 15 μm or less, and a third filler having an average particle diameter D50 of more than 15 μm and equal to or less than 50 μm, and wherein a maximum exothermic peak temperature in a DSC curve of the epoxy resin composition obtained in a case of elevating a temperature from 30°C to 200°C under a condition of a temperature elevating rate of 10°C/min using a differential scanning calorimeter is equal to or higher than 80°C and equal to or lower than 145°C.
A method for producing a negative electrode material for lithium ion secondary batteries, comprising steps of: providing resin-retained partially exfoliated graphite having a structure in which graphene is partially exfoliated, obtained by pyrolyzing a resin in a composition in which the resin is fixed to graphite or primary exfoliated graphite, thereby exfoliating the graphite or primary exfoliated graphite while allowing part of the resin to remain; and heating a raw material composition comprising the partially exfoliated graphite and fine particles to include the fine particles between graphene layers in the partially exfoliated graphite to obtain a fine particle-exfoliated graphite composite, wherein the fine particles are at least one selected from the group consisting of Co, Mn, Ni, P, Sn, Ge, Si, Ti, Zr, V, Al, and compounds thereof. providing resin-retained partially exfoliated graphite having a structure in which graphene is partially exfoliated, obtained by pyrolyzing a resin in a composition in which the resin is fixed to graphite or primary exfoliated graphite, thereby exfoliating the graphite or primary exfoliated graphite while allowing part of the resin to remain; and heating a raw material composition comprising the partially exfoliated graphite and fine particles to include the fine particles between graphene layers in the partially exfoliated graphite to obtain a fine particle-exfoliated graphite composite, wherein the fine particles are at least one selected from the group consisting of Co, Mn, Ni, P, Sn, Ge, Si, Ti, Zr, V, Al, and compounds thereof.
A product cushioning structure for supporting a shock sensitive product in an outer packaging container having a plurality of container walls, said cushioning structure comprising: three inner product-supporting walls for supporting the shock sensitive product within the cushioning structure; three outer container-contacting walls for supporting and stabilizing the cushioning structure within the outer packaging container in at least one of three mutually perpendicular directions; and intermediate wall sections between said inner walls and said outer walls; and wherein said intermediate wall sections, said outer container-contacting walls and said inner product-supporting walls are made of a paper-based sheet material treated or manufactured to have reduced porosity; wherein said intermediate wall sections, said inner product-supporting walls and said outer container-contacting walls are joined together to define three hollow cells in mutually perpendicular directions to define a corner structure; and wherein said hollow cells are crushable to provide shock absorption support to said product during shock loading conditions, and characterised in that the paper-based sheet material is a mix of 15% polyethylene and paper. three inner product-supporting walls for supporting the shock sensitive product within the cushioning structure; three outer container-contacting walls for supporting and stabilizing the cushioning structure within the outer packaging container in at least one of three mutually perpendicular directions; and intermediate wall sections between said inner walls and said outer walls; and wherein said intermediate wall sections, said outer container-contacting walls and said inner product-supporting walls are made of a paper-based sheet material treated or manufactured to have reduced porosity; wherein said intermediate wall sections, said inner product-supporting walls and said outer container-contacting walls are joined together to define three hollow cells in mutually perpendicular directions to define a corner structure; and wherein said hollow cells are crushable to provide shock absorption support to said product during shock loading conditions, and characterised in that the paper-based sheet material is a mix of 15% polyethylene and paper.
A process for the manufacture of a collagenous material, comprising the steps of: (i) treating a natural tissue material with an organic solvent; (ii) treating the natural tissue material with a proteolytic enzyme, so as to provide a treated material that is substantially free of non-fibrous tissue proteins, cellular elements and lipids or lipid residues; (iii) forming a plurality of collagen particles from the treated material, said collagen particles comprising fragments of collagen fibres displaying the original collagen fibre architecture and molecular ultrastracture of said natural tissue material; (iv) treating the collagen particles with an aqueous acid solution to swell the collagen particles; and (v) collectively dehydrating the swollen collagen particles. (i) treating a natural tissue material with an organic solvent; (ii) treating the natural tissue material with a proteolytic enzyme, so as to provide a treated material that is substantially free of non-fibrous tissue proteins, cellular elements and lipids or lipid residues; (iii) forming a plurality of collagen particles from the treated material, said collagen particles comprising fragments of collagen fibres displaying the original collagen fibre architecture and molecular ultrastracture of said natural tissue material; (iv) treating the collagen particles with an aqueous acid solution to swell the collagen particles; and (v) collectively dehydrating the swollen collagen particles.
A fluid ejection head, comprising: a substrate, configured to contain a plurality of fluid ejection actuators on a device surface thereof and one or more fluid supply vias formed therethrough; a first photoresist layer, configured to be laminated to the device surface of the substrate and containing flow features; and a second photoresist layer, configured to be laminated to the first photoresist layer and containing nozzle holes, wherein the second photoresist layer comprises: a hydrophilic photoresist material layer disposed adjacent to the first photoresist layer, and a hydrophobic photoresist material layer disposed adjacent to the hydrophilic photoresist material layer; the fluid ejection head being characterized in that the first photoresist layer is configured to provide an anti-reflective coating on the substrate and wherein the photoresist layer is used as the anti-reflective layer. a substrate, configured to contain a plurality of fluid ejection actuators on a device surface thereof and one or more fluid supply vias formed therethrough; a first photoresist layer, configured to be laminated to the device surface of the substrate and containing flow features; and a second photoresist layer, configured to be laminated to the first photoresist layer and containing nozzle holes, wherein the second photoresist layer comprises: a hydrophilic photoresist material layer disposed adjacent to the first photoresist layer, and a hydrophobic photoresist material layer disposed adjacent to the hydrophilic photoresist material layer; a hydrophilic photoresist material layer disposed adjacent to the first photoresist layer, and a hydrophobic photoresist material layer disposed adjacent to the hydrophilic photoresist material layer; the fluid ejection head being characterized in that the first photoresist layer is configured to provide an anti-reflective coating on the substrate and wherein the photoresist layer is used as the anti-reflective layer.
Spray device, preferably for fire fighting, having a spray head and a pipe portion which is fastened thereto and which encloses a liquid channel, wherein the spray head is formed by a hollow body into which the liquid channel leads and which is provided with outlet openings having an emission direction such that liquid exits three-dimensionally from the spray head, wherein the hollow body is exclusively of spherical design outside the mouth of the liquid channel, wherein the outlet openings are arranged so as to be distributed over the entire spherical surface, wherein the pipe portion is configured as a rigid pipe and is provided at its end remote from the spray head with a connector for a fire hose, characterized in that the connector is a bayonet coupling for the pressure-tight connection of the fire hose, which is provided with a corresponding coupling counterpart, wherein the pipe length of the pipe portion between the bayonet coupling and the mouth of the liquid channel into the hollow body is between 1000 mm and 4000 mm, in that the pipe portion is provided with a blocking apparatus for selectively blocking or opening the liquid channel, in that the blocking apparatus is arranged directly adjoining the bayonet coupling and in that the pipe portion is composed of a main longitudinal portion running in a linear manner and a connecting portion between the main longitudinal portion and the spray head, wherein the pipe portion on the connecting portion runs obliquely and/or offset in parallel to the main longitudinal portion.
A method of obtaining a calibrated measurement of a sample using an integrating cavity, comprising: obtaining sample spectral information by using the integrating cavity with the sample placed inside the integrating cavity; obtaining first cavity-characterizing spectral information generated by using the integrating cavity with a standard object; obtaining a measurement result from the sample spectral information by employing a mathematical process that takes cavity-characterizing spectral information as input, and after obtaining the first cavity-characterizing spectral information, obtaining a second cavity-characterizing spectral information by using the integrating cavity with the standard object and comparing it to the first cavity-characterizing spectral information, and responsive to the comparison indicating that the second cavity-characterizing spectral information differs from the first cavity-characterizing spectral information, using the second cavity-characterizing spectral information for obtaining the measurement result, and using the first cavity-characterizing spectral information for obtaining the measurement result otherwise, wherein the standard object comprises an object with an optically black layer thereon. obtaining sample spectral information by using the integrating cavity with the sample placed inside the integrating cavity; obtaining first cavity-characterizing spectral information generated by using the integrating cavity with a standard object; obtaining a measurement result from the sample spectral information by employing a mathematical process that takes cavity-characterizing spectral information as input, and after obtaining the first cavity-characterizing spectral information, obtaining a second cavity-characterizing spectral information by using the integrating cavity with the standard object and comparing it to the first cavity-characterizing spectral information, and responsive to the comparison indicating that the second cavity-characterizing spectral information differs from the first cavity-characterizing spectral information, using the second cavity-characterizing spectral information for obtaining the measurement result, and using the first cavity-characterizing spectral information for obtaining the measurement result otherwise, wherein the standard object comprises an object with an optically black layer thereon.