mhurhangee/ep-ind-claims huggingface dataset:
A polyamide composition for a reflector, comprising: 30 mass% or more of a polyamide having a melting point of 280°C or higher; and 30 mass% or more of titanium oxide, wherein a total content of the polyamide and the titanium oxide is 75 mass% or more, and the composition is obtained using 50 mass% or more of the polyamide in the form of solids having a particle diameter in a range of 1 mm or less wherein the particle diameter of the polyamide in the form of solids is measured by a sieving method and the melting point of the polyamide is measured as specified in the description.
A base assembly for supporting a free standing structure with at least one leg, comprising: a base having a top surface and a bottom surface; a first shaft extending from the top surface of the base; and a second shaft adapted to removably couple to the leg of the free standing structure, characterized in that the first shaft being mountable to the second shaft in multiple configurations for differing uses of the base, the second shaft having a first opening receiving the first shaft in a first configuration with the base in a generally horizontal orientation for supporting the base assembly in a stationary position, and the second shaft having a second opening receiving the first shaft in a second configuration with the base in a generally vertical orientation for transporting the base assembly in which the base is rotatable with respect to the second shaft. a base having a top surface and a bottom surface; a first shaft extending from the top surface of the base; and a second shaft adapted to removably couple to the leg of the free standing structure, characterized in that the first shaft being mountable to the second shaft in multiple configurations for differing uses of the base, the second shaft having a first opening receiving the first shaft in a first configuration with the base in a generally horizontal orientation for supporting the base assembly in a stationary position, and the second shaft having a second opening receiving the first shaft in a second configuration with the base in a generally vertical orientation for transporting the base assembly in which the base is rotatable with respect to the second shaft.
A multilayered acoustic panel including: a substantially air impermeable outer membrane layer; and an inner layer having a plurality of apertures therein, wherein the membrane layer overlies the apertures such that those portions of the membrane layer which overlie the apertures are free to vibrate in response to sound waves incident on the membrane layer, characterised in that an underlying second portion is bonded to the membrane layer, the second portion includes an intermediate layer; the inner layer is underlying the second portion; the apertures of the inner layer are being covered by the intermediate layer of the second portion; the membrane layer and second portion are not bonded together where the membrane layer overlies the apertures such that those portions of the membrane layer which overlie the apertures are free to vibrate independently of the second portion in response to sound waves incident on the membrane layer. a substantially air impermeable outer membrane layer; and an inner layer having a plurality of apertures therein, wherein the membrane layer overlies the apertures such that those portions of the membrane layer which overlie the apertures are free to vibrate in response to sound waves incident on the membrane layer, characterised in that an underlying second portion is bonded to the membrane layer, the second portion includes an intermediate layer; the inner layer is underlying the second portion; the apertures of the inner layer are being covered by the intermediate layer of the second portion; the membrane layer and second portion are not bonded together where the membrane layer overlies the apertures such that those portions of the membrane layer which overlie the apertures are free to vibrate independently of the second portion in response to sound waves incident on the membrane layer.
A method for creating a new folder on a touch screen device, characterized by comprising the following steps: detecting that at least two objects on a current interface of the touch screen are successively within a preset time range selected, dragged to a specific area of the current interface and released by input of a user of the touch screen device; determining whether a type of each of the at least two objects matches one or more types of acceptance properties which are preconfigured for a folder in the current interface; wherein upon determining that the type of each of the at least two objects matches the one or more types of acceptance properties, creating a new folder at any vacant position on the current interface and saving the at least two objects in the new folder; and upon determining that the type of any of the at least two objects does not match the one or more types of acceptance properties, prompting the user that the type of the any of at least two objects does not match the one or more types of acceptance properties and that the creation of the new folder fails. detecting that at least two objects on a current interface of the touch screen are successively within a preset time range selected, dragged to a specific area of the current interface and released by input of a user of the touch screen device; determining whether a type of each of the at least two objects matches one or more types of acceptance properties which are preconfigured for a folder in the current interface; wherein upon determining that the type of each of the at least two objects matches the one or more types of acceptance properties, creating a new folder at any vacant position on the current interface and saving the at least two objects in the new folder; and upon determining that the type of any of the at least two objects does not match the one or more types of acceptance properties, prompting the user that the type of the any of at least two objects does not match the one or more types of acceptance properties and that the creation of the new folder fails.
Method of producing a layer of a UV-cured silicone rubber composition on a substrate surface, said UV-cured silicone rubber composition having an improved adhesion to the substrate surface, said method comprising applying a silicone primer composition to the substrate surface and hardening said silicone primer composition followed by applying thereupon a UV-curable silicone rubber composition, and UV-curing said curable silicone rubber composition, whereby an electrical insulator is obtained, characterized in that at least one UV-sensitive crosslinking catalyst selected from compounds which initiate and promote curing, resp. crosslinking, of UV-curable silicone rubber compositions, is added to the silicone primer composition in any desired sequence before, during or after hardening of said silicone primer composition, wherein the UV-sensitive catalyst is made from a metal of group VIII of the periodic system of elements.
A fiber preform for a turbine engine blade obtained by three-dimensional weaving, the preform comprising: a first longitudinal segment suitable for forming a blade root; a second longitudinal segment extending the first longitudinal segment upwards and suitable for forming an airfoil portion; a first transverse segment extending transversely from the junction between the first and second longitudinal segments (31, 32) and suitable for forming a first platform; and a first stiffener strip extending downwards from the distal edge of the first transverse portion and suitable for forming a first platform stiffener. a first longitudinal segment suitable for forming a blade root; a second longitudinal segment extending the first longitudinal segment upwards and suitable for forming an airfoil portion; a first transverse segment extending transversely from the junction between the first and second longitudinal segments (31, 32) and suitable for forming a first platform; and a first stiffener strip extending downwards from the distal edge of the first transverse portion and suitable for forming a first platform stiffener.
A method for forming a thin film structure including a lower film and an upper film on a substrate, the method comprising: a step of forming the lower film consisting of a polysilicon thin film on the substrate, a step of making the lower film to be conductive by doping an impurity into the lower film and thermally diffusing the impurity, a step of forming the upper film consisting of a second polysilicon thin film on the lower film, the upper film being nonconductive, a step of adjusting a first tensile stress of the upper film to be approximately the same level as a compressive stress of the lower film such that the thin film structure as a whole has a final tensile stress, and a step of separating the thin film structure from the substrate by a first etching from a bottom side to open a through-hole in the substrate, wherein after the impurity is doped into the lower film, an oxide film is formed on a top of the lower film before the impurity is thermally diffused. a step of forming the lower film consisting of a polysilicon thin film on the substrate, a step of making the lower film to be conductive by doping an impurity into the lower film and thermally diffusing the impurity, a step of forming the upper film consisting of a second polysilicon thin film on the lower film, the upper film being nonconductive, a step of adjusting a first tensile stress of the upper film to be approximately the same level as a compressive stress of the lower film such that the thin film structure as a whole has a final tensile stress, and a step of separating the thin film structure from the substrate by a first etching from a bottom side to open a through-hole in the substrate, wherein after the impurity is doped into the lower film, an oxide film is formed on a top of the lower film before the impurity is thermally diffused.
A multilayer rcsin-coated metal wire comprising: a resin-coated wire; and an ion-releasing layer provided on a surface of the resin-coated wire; wherein the resin-coated wire is obtained by coating a metal wire with a protective layer including an ionomer resin, with an adhesive layer interposed therebetween, and wherein the ion-releasing layer includes a resin-metal mixed material obtained by mixing a metal clement-containing powder made of a metal or a metal compound capable of releasing metal ions which exhibit organism repellency, with a base resin which is a polyolefin or a polyester. a resin-coated wire; and an ion-releasing layer provided on a surface of the resin-coated wire; wherein the resin-coated wire is obtained by coating a metal wire with a protective layer including an ionomer resin, with an adhesive layer interposed therebetween, and wherein the ion-releasing layer includes a resin-metal mixed material obtained by mixing a metal clement-containing powder made of a metal or a metal compound capable of releasing metal ions which exhibit organism repellency, with a base resin which is a polyolefin or a polyester.
A method for predicting risk of recurrence, metastasis, or both, in a patient with a cutaneous squamous cell carcinoma (cSCC) tumor, the method comprising: (a) isolating mRNA from a cSCC tumor sample that has been obtained from the patient; (b) determining the expression level of ALOX12, BBC, BHLHB9, GTPBP2, HDDC3, ID2, LCE2B, LOC100287896, MMP10, MSANTD4, NFASC, NFIC, PDPN, RCHY1, RPP38, RUNX3, TAF6L, TFAP2B, ZNF48, and ZNF496; (c) providing an indication as to whether the cSCC tumor has a low risk to a high risk of local recurrence, distant metastasis, or both, based on the expression levels of ALOX 12, BBC, BHLHB9, GTPBP2, HDDC3, ID2, LCE2B, LOC100287896, MMP10, MSANTD4, NFASC, NFIC, PDPN, RCHY1, RPP38, RUNX3, TAF6L, TFAP2B, ZNF48, and ZNF496. (a) isolating mRNA from a cSCC tumor sample that has been obtained from the patient; (b) determining the expression level of ALOX12, BBC, BHLHB9, GTPBP2, HDDC3, ID2, LCE2B, LOC100287896, MMP10, MSANTD4, NFASC, NFIC, PDPN, RCHY1, RPP38, RUNX3, TAF6L, TFAP2B, ZNF48, and ZNF496; (c) providing an indication as to whether the cSCC tumor has a low risk to a high risk of local recurrence, distant metastasis, or both, based on the expression levels of ALOX 12, BBC, BHLHB9, GTPBP2, HDDC3, ID2, LCE2B, LOC100287896, MMP10, MSANTD4, NFASC, NFIC, PDPN, RCHY1, RPP38, RUNX3, TAF6L, TFAP2B, ZNF48, and ZNF496.
A heat transfer plate comprising at least one first port hole area, opposing front and back sides (4, 6) and an outer edge portion comprising corrugations extending between and in first and second planes (38, 40) defining the extension of the heat transfer plate, which first and second planes (38, 40) are parallel to each other and to an intermediate plane extending between the first and second planes (38, 40), the front and back sides (4, 6) of the heat transfer plate facing the first and second planes (38, 40), respectively, wherein each of said at least one first port hole area comprises a first port hole defined by an annular first inner edge of the heat transfer plate, said first inner edge consisting of a first and a second section (52, 54), which first section is 25-65% of the first inner edge, a front gasket groove on the front side of the heat transfer plate extending along the first section of said first inner edge, and a back gasket groove on the back side of the heat transfer plate extending along the first and second sections (52, 54) of said first inner edge, each of said at least one first port hole area further comprising an annular first inner port portion extending along the first and second sections (52, 54) of said first inner edge, a first intermediate port portion encircling the first inner port portion, and a first outer port portion encircling the first intermediate port portion, the front and back gasket grooves (27, 39) extending within the first inner, intermediate and outer port portions (56, 58, 60), characterized in that the first inner port portion comprises, as seen from the front side of the heat transfer plate, a number ≥ 1 of first support projections along the second section of the first inner edge, each of said number of first support projections comprising a first top portion extending in the first plane, and the heat transfer plate extends, within the first inner port portion and outside said number of first support projections, at a distance ≠ 0 from the first and second planes (38, 40).
A mining method by which graphitic ore is produced in a form that constitutes an appropriate feedstock for an electrolytic process for the production of graphitic materials through exfoliation wherein the graphitic ore feedstock is extracted from a graphite ore body by non-explosive techniques and wherein the non-explosive technique for extraction of the graphitic ore feedstock includes one or more of cutting, sawing, splitting and/or slicing, wherein the graphitic ore feedstock has an unconfined compressive strength of between 25 to 300 MPa and wherein the graphitic ore feedstock has an electrical resistivity of between 10 Ohm-metre to 0.00001 Ohm-metre.
A preparation comprising a viral vector encoding an ELOVL2 protein or polypeptide for use in a method for selecting a patient in need of treatment of age-related macular degeneration and treating age-related macular degeneration in the patient, wherein the viral vector is suitable for administration to a human subject and in an excipient suitable for administration to a human subject.
A process for the purification of a liquid feed comprising less than 0.009% by weight of water and comprising monochloroacetic acid, dichloroacetic acid, optionally acid chlorides, optionally anhydrides, and optionally acetic acid, which comprises the steps of (a) adding water to the liquid feed so that a liquid feed is obtained comprising between 0.01 and 5% by weight of water, based on the total weight of the liquid feed, and (b) subsequently subjecting the liquid feed obtained in step (a) to a catalytic hydrodechlorination step by contacting it with a source of hydrogen to convert the dichloroacetic acid into monochloroacetic acid in the presence of a solid heterogeneous hydrogenation catalyst comprising one or more metals of Group VIII of the Periodic Table of the Elements deposited on a carrier. (a) adding water to the liquid feed so that a liquid feed is obtained comprising between 0.01 and 5% by weight of water, based on the total weight of the liquid feed, and (b) subsequently subjecting the liquid feed obtained in step (a) to a catalytic hydrodechlorination step by contacting it with a source of hydrogen to convert the dichloroacetic acid into monochloroacetic acid in the presence of a solid heterogeneous hydrogenation catalyst comprising one or more metals of Group VIII of the Periodic Table of the Elements deposited on a carrier.
Stirrup for horse-riding, comprising a tread for supporting the foot and an arched structure which extends from the ends of the tread for connection to the stirrup leather, wherein said arched structure is formed of two stirrup arms, each having a lower end connected to a respective end of the tread and an upper end (14") forming, in a single body with said arm, a half-ring lying in a plane substantially orthogonal to the plane in which said arched structure lies, the half-rings of said stirrup arms being juxtaposed so as to form a stirrup ring suitable to be crossed by the stirrup leather; characterized in that the tread comprises a tread body made by moulding; the stirrup arms are screwed to the tread; and in that two threaded bushes are embedded in the body of the stirrup in which attachment screws are screwed to attach the arms of the stirrup to the tread body.
A process for urea production, comprising: a synthesis step of synthesizing urea from ammonia and carbon dioxide to generate a urea synthesis solution; a high-pressure decomposition step of, by heating the urea synthesis solution generated in the synthesis step, decomposing ammonium carbamate and separating a gaseous mixture containing ammonia and carbon dioxide from the urea synthesis solution; and a condensation step of absorbing and condensing at least a part of the gaseous mixture obtained in the high-pressure decomposition step in an absorption medium and generating low-pressure steam from steam condensate with use of heat generated during the condensation, the process for urea production further comprising: a) a step of heat-exchanging steam condensate whose temperature is higher than 90°C with another fluid to cool this steam condensate to 90°C or less; b) a step of, by heat-exchanging the steam condensate obtained from said step a with a further fluid having a temperature lower than a temperature of the low-pressure steam, heating the steam condensate obtained from said step a; and c) a step of supplying the steam condensate obtained from said step b to the condensation step as the steam condensate for generating the low-pressure steam. a synthesis step of synthesizing urea from ammonia and carbon dioxide to generate a urea synthesis solution; a high-pressure decomposition step of, by heating the urea synthesis solution generated in the synthesis step, decomposing ammonium carbamate and separating a gaseous mixture containing ammonia and carbon dioxide from the urea synthesis solution; and a condensation step of absorbing and condensing at least a part of the gaseous mixture obtained in the high-pressure decomposition step in an absorption medium and generating low-pressure steam from steam condensate with use of heat generated during the condensation, the process for urea production further comprising: a) a step of heat-exchanging steam condensate whose temperature is higher than 90°C with another fluid to cool this steam condensate to 90°C or less; b) a step of, by heat-exchanging the steam condensate obtained from said step a with a further fluid having a temperature lower than a temperature of the low-pressure steam, heating the steam condensate obtained from said step a; and c) a step of supplying the steam condensate obtained from said step b to the condensation step as the steam condensate for generating the low-pressure steam. a) a step of heat-exchanging steam condensate whose temperature is higher than 90°C with another fluid to cool this steam condensate to 90°C or less; b) a step of, by heat-exchanging the steam condensate obtained from said step a with a further fluid having a temperature lower than a temperature of the low-pressure steam, heating the steam condensate obtained from said step a; and c) a step of supplying the steam condensate obtained from said step b to the condensation step as the steam condensate for generating the low-pressure steam.
A process for treating a wort composition in a kettle, said method comprising the steps of: (a) providing: a kettle provided with an inlet suitable for feeding a wort composition into the kettle and with an outlet suitable for flowing the wort out of the kettle; heating means; a gas sparging system suitable for sparging a gas into said wort; (b) adding wort from a mash separating step into said kettle through the inlet; (c) heating said wort to a target temperature between 80 and 96°C; (d) maintain an average target temperature between 80 and 96°C for a period of 12-45 minutes, and during which the wort composition does not reach its boiling point, and during which period gas sparging of less than 10 g/HI/Hr, preferably no gas sparging, takes place; (e) raising the temperature of the wort composition to a target temperature of between 97°C and 99°C; (f) sparging a gas through the wort composition at an average rate of 80-350 g/HI/Hr while maintaining an average target temperature of between 97°C and 99°C for a period of between 15 minutes and 75 minutes; and during which the wort composition does not reach its boiling point; and (g) transferring the treated wort composition to a trub separation step through the kettle outlet. (a) providing: a kettle provided with an inlet suitable for feeding a wort composition into the kettle and with an outlet suitable for flowing the wort out of the kettle; heating means; a gas sparging system suitable for sparging a gas into said wort; a kettle provided with an inlet suitable for feeding a wort composition into the kettle and with an outlet suitable for flowing the wort out of the kettle; heating means; a gas sparging system suitable for sparging a gas into said wort; (b) adding wort from a mash separating step into said kettle through the inlet; (c) heating said wort to a target temperature between 80 and 96°C; (d) maintain an average target temperature between 80 and 96°C for a period of 12-45 minutes, and during which the wort composition does not reach its boiling point, and during which period gas sparging of less than 10 g/HI/Hr, preferably no gas sparging, takes place; (e) raising the temperature of the wort composition to a target temperature of between 97°C and 99°C; (f) sparging a gas through the wort composition at an average rate of 80-350 g/HI/Hr while maintaining an average target temperature of between 97°C and 99°C for a period of between 15 minutes and 75 minutes; and during which the wort composition does not reach its boiling point; and (g) transferring the treated wort composition to a trub separation step through the kettle outlet.