mhurhangee/ep-ind-claims huggingface dataset:
A follower plate for use in an apparatus that forces a viscous material to flow from a storage container, the follower plate comprising: an annular outer body having an upper surface, a lower surface, an outer periphery, an inner periphery, and an indented region, wherein the inner periphery forms an orifice that is in fluid communication with an opening in a pipe or tube of the apparatus through which the viscous material flows, and the orifice is aligned with the indented region along a central axis of the annular outer body; a sealing element located around the outer periphery of the annular outer body, the sealing element configured to provide a leak-proof seal with the storage container; and a material saving insert configured to fit within the indented region of the annular outer body, the material saving insert comprising: a top surface coupled to the annular outer body; an inner hub that forms an outlet that is in fluid communication with the orifice of the inner periphery of the annular outer body; an outer edge; a plurality of radial slots having a width (w) that are formed by a plurality of ribs, each radial slot having a length that extends from the outer edge to the inner hub; and a bottom surface formed by the plurality of ribs, the bottom surface being flush with the lower surface of the annular outer body. an annular outer body having an upper surface, a lower surface, an outer periphery, an inner periphery, and an indented region, wherein the inner periphery forms an orifice that is in fluid communication with an opening in a pipe or tube of the apparatus through which the viscous material flows, and the orifice is aligned with the indented region along a central axis of the annular outer body; a sealing element located around the outer periphery of the annular outer body, the sealing element configured to provide a leak-proof seal with the storage container; and a material saving insert configured to fit within the indented region of the annular outer body, the material saving insert comprising: a top surface coupled to the annular outer body; an inner hub that forms an outlet that is in fluid communication with the orifice of the inner periphery of the annular outer body; an outer edge; a plurality of radial slots having a width (w) that are formed by a plurality of ribs, each radial slot having a length that extends from the outer edge to the inner hub; and a bottom surface formed by the plurality of ribs, the bottom surface being flush with the lower surface of the annular outer body. a top surface coupled to the annular outer body; an inner hub that forms an outlet that is in fluid communication with the orifice of the inner periphery of the annular outer body; an outer edge; a plurality of radial slots having a width (w) that are formed by a plurality of ribs, each radial slot having a length that extends from the outer edge to the inner hub; and a bottom surface formed by the plurality of ribs, the bottom surface being flush with the lower surface of the annular outer body.
Method of recycling by treatment of ceramic parts in a device for treatment, the parts being provided for use in the industry of artificial synthetic fibers, characterized in that, it takes place in three stages, namely: ceramic part preparation, treatment of the surface of the ceramic part with abrasive material and final treatment with optical control.
A functional fluid composition comprising (i) an alkoxy glycol mixture in an amount of 38% to 47% by weight of the functional fluid composition, where the alkoxy glycol mixture is comprised of alkoxy glycols having the formula: wherein each of R 1, R 2, R 3, R 4, R 5 is either hydrogen or an alkyl group containing 1 to 8 or more carbon atoms or mixtures thereof, wherein said mixture has a first alkoxy glycol component in an amount of 36% to 73% by weight of said mixture where n = 3, a second alkoxy glycol component from 17% to 43% by weight of said mixture where n = 4, and a third alkoxy glycol component in an amount from 2% to 10% by weight of said mixture where n is greater than or equal to 5 and (ii) a glycol borate ester in an amount of 53% to 62% by weight of the functional fluid composition. (i) an alkoxy glycol mixture in an amount of 38% to 47% by weight of the functional fluid composition, where the alkoxy glycol mixture is comprised of alkoxy glycols having the formula: wherein each of R 1, R 2, R 3, R 4, R 5 is either hydrogen or an alkyl group containing 1 to 8 or more carbon atoms or mixtures thereof, wherein said mixture has a first alkoxy glycol component in an amount of 36% to 73% by weight of said mixture where n = 3, a second alkoxy glycol component from 17% to 43% by weight of said mixture where n = 4, and a third alkoxy glycol component in an amount from 2% to 10% by weight of said mixture where n is greater than or equal to 5 and (ii) a glycol borate ester in an amount of 53% to 62% by weight of the functional fluid composition.
Method for manufacturing a container for transporting and/or storing pourable materials, protected against anti-static charges and which has walls composed of at least one layer by using a conductive plastic material, wherein - the at least one layer comprises a first plastic material; - the first plastic material comprises a portion of a conductive plastic; - said first plastic material comprises a portion of a basic plastic; - said first plastic material has an average specific resistivity smaller than 10 10 Ω; - a portion of said first plastic material in the form of a master batch with a portion of a non-conductive plastic material is mixed in a specifiable ratio and said mixture is fed into a blow molding apparatus; - said first plastic material comprises as a basic plastic a homo-, co-, block-, and/or random polymer, selected from a group consisting of polyethylenes and/or polypropylenes; - said non-conductive plastic material comprises a second plastic, selected from a group comprising homo-, co-, block and/or random polymers of the polyethylene and/or polypropylene; and - the basic plastic of said first plastic material and the second plastic of said non-conductive plastic material are chemically identical. - the at least one layer comprises a first plastic material; - the first plastic material comprises a portion of a conductive plastic; - said first plastic material comprises a portion of a basic plastic; - said first plastic material has an average specific resistivity smaller than 10 10 Ω; - a portion of said first plastic material in the form of a master batch with a portion of a non-conductive plastic material is mixed in a specifiable ratio and said mixture is fed into a blow molding apparatus; - said first plastic material comprises as a basic plastic a homo-, co-, block-, and/or random polymer, selected from a group consisting of polyethylenes and/or polypropylenes; - said non-conductive plastic material comprises a second plastic, selected from a group comprising homo-, co-, block and/or random polymers of the polyethylene and/or polypropylene; and - the basic plastic of said first plastic material and the second plastic of said non-conductive plastic material are chemically identical.
Method for controlling surface contact area of a paper or board substrate or a product thereof, by depositing electrostatically a trace amount of particles to form a layer(s) on said surface, wherein said particles comprise boundary lubricants and said particles are deposited to the target surface solubilized or dispersed in a suitable liquid solvent or carrier, wherein said controlling is not priming.
An anticorrosive coating composition comprising: a binding polymer; a corrosion-inhibiting pigment comprising aluminum phosphate dispersed within the binding polymer, wherein the aluminum phosphate comprises amorphous aluminum phosphate; wherein the coating composition comprises in the range of from about 1 to 25 percent by weight aluminum phosphate, and wherein the coating composition provides a controlled phosphate release in the range of from about 50 to 500 ppm, preferably between about 100 to 200 ppm, when applied to the metallic substrate and when contacted with water and oxygen. a binding polymer; a corrosion-inhibiting pigment comprising aluminum phosphate dispersed within the binding polymer, wherein the aluminum phosphate comprises amorphous aluminum phosphate; wherein the coating composition comprises in the range of from about 1 to 25 percent by weight aluminum phosphate, and wherein the coating composition provides a controlled phosphate release in the range of from about 50 to 500 ppm, preferably between about 100 to 200 ppm, when applied to the metallic substrate and when contacted with water and oxygen.
A computer-implemented method for adjusting a plurality of images on a display, the plurality of images comprising at least a first image and second image, each image being mapped from a high dynamic range to a smaller range of intensity values by having an adjustable width range of intensity values being a window parameter and an adjustable center of the range of the intensity values being a level parameter, the method comprising: displaying the first image and the second image overlaid on top of each other in a blended view on the display according to an initial transparency blending factor value between a first value and a second value, where, when the transparency blending factor has a first value the first image is fully opaque and the second image is fully transparent, and when the transparency blending factor has a second value the first image is fully transparent and the second image is fully opaque; upon a user adjusting the window and/or level parameters of the first image, causing the transparency blending factor to change to display only the first image, the transparency blending factor resetting back to the initial transparency blending factor value to display both the first and second images in the blended view upon the user adjustment of the first image window/level parameters ending; and upon a user adjusting the window/level parameters of the second image, causing the transparency blending factor to change to display only the second image, the transparency blending resetting back to the initial transparency blending factor value that displays both the first and second images in the blended view upon adjustment of the second image window and/or level parameters ending. displaying the first image and the second image overlaid on top of each other in a blended view on the display according to an initial transparency blending factor value between a first value and a second value, where, when the transparency blending factor has a first value the first image is fully opaque and the second image is fully transparent, and when the transparency blending factor has a second value the first image is fully transparent and the second image is fully opaque; upon a user adjusting the window and/or level parameters of the first image, causing the transparency blending factor to change to display only the first image, the transparency blending factor resetting back to the initial transparency blending factor value to display both the first and second images in the blended view upon the user adjustment of the first image window/level parameters ending; and upon a user adjusting the window/level parameters of the second image, causing the transparency blending factor to change to display only the second image, the transparency blending resetting back to the initial transparency blending factor value that displays both the first and second images in the blended view upon adjustment of the second image window and/or level parameters ending.
An amplifier structure comprising: a transistor element having a plurality of sub-sections (36a-36j) J Z arranged adjacent to one another along a transistor element; axis; and a bias distribution element (26,30) configured to receive a bias signal from a lead and provide the bias signal to the transistor element, the bias distribution element (26,30) comprising: a first part configured to receive the bias signal and to deliver the bias signal to a distribution point; and a second part electrically connected to the first part only Z at the distribution point and configured to supply the bias signal to each of the sub-sections (36a-36j) of the transistor element; wherein the second part comprises separate current paths that diverge from the distribution point to provide the bias signal to each of the sub-sections (36a-36j) of the transistor element, the distribution point arranged facing a centre point of the transistor element: axis. a transistor element having a plurality of sub-sections (36a-36j) J Z arranged adjacent to one another along a transistor element; axis; and a bias distribution element (26,30) configured to receive a bias signal from a lead and provide the bias signal to the transistor element, the bias distribution element (26,30) comprising: a first part configured to receive the bias signal and to deliver the bias signal to a distribution point; and a second part electrically connected to the first part only Z at the distribution point and configured to supply the bias signal to each of the sub-sections (36a-36j) of the transistor element; wherein the second part comprises separate current paths that diverge from the distribution point to provide the bias signal to each of the sub-sections (36a-36j) of the transistor element, the distribution point arranged facing a centre point of the transistor element: axis. a first part configured to receive the bias signal and to deliver the bias signal to a distribution point; and a second part electrically connected to the first part only Z at the distribution point and configured to supply the bias signal to each of the sub-sections (36a-36j) of the transistor element; wherein the second part comprises separate current paths that diverge from the distribution point to provide the bias signal to each of the sub-sections (36a-36j) of the transistor element, the distribution point arranged facing a centre point of the transistor element: axis.
A polynucleic acid molecule that mediates RNA interference against EGFR, comprising a sense strand and an antisense strand that hybridizes to a EGFR target sequence SEQ ID NO: 45, wherein: • the polynucleic acid molecule comprises at least one 2' modified nucleotide, at least five phosphorothioate internucleotide linkages, and at least one inverted abasic moiety; • the sense strand comprises at least one phosphorothioate internucleotide linkage; • the polynucleic acid molecule comprises from 90% to 100% modification; • each of the sense strand and the antisense strand is from 21 to 30 nucleotides in length; and • the sense strand comprises a sequence selected from SEQ ID NO: 465, 1217, 1881, 1885, 1887, and 1889. • the polynucleic acid molecule comprises at least one 2' modified nucleotide, at least five phosphorothioate internucleotide linkages, and at least one inverted abasic moiety; • the sense strand comprises at least one phosphorothioate internucleotide linkage; • the polynucleic acid molecule comprises from 90% to 100% modification; • each of the sense strand and the antisense strand is from 21 to 30 nucleotides in length; and • the sense strand comprises a sequence selected from SEQ ID NO: 465, 1217, 1881, 1885, 1887, and 1889.
A composition having a viscosity between 1 and 60 mPa.s, as determined using a Physica Rheometer MCR 300 (Physica Messtechnik GmbH, Ostfilden, Germany) at shear rate of 95 s -1 at 20 °C, a caloric density between 10 and 250 kcal per 100 ml, comprising Bifidobacterium breve, a non-digestible saccharide A and a non-digestible saccharide B, wherein: a. non-digestible saccharide A has a degree of polymerisation of 2-8 and at least 60 mol% of the total monosaccharide units of saccharide A are monosaccharides selected from the group consisting of fructose and glucose monosaccharides; and b. non-digestible saccharide B has a degree of polymerisation of 8-100 and at least 60 mol% of the total monosaccharide units of saccharide B are monosaccharides selected from the group consisting of fructose and glucose monosaccharides; and wherein the average degree of polymerisation of saccharide A is at least 5 monosaccharide units lower than the average degree of polymerisation of saccharide B. a. non-digestible saccharide A has a degree of polymerisation of 2-8 and at least 60 mol% of the total monosaccharide units of saccharide A are monosaccharides selected from the group consisting of fructose and glucose monosaccharides; and b. non-digestible saccharide B has a degree of polymerisation of 8-100 and at least 60 mol% of the total monosaccharide units of saccharide B are monosaccharides selected from the group consisting of fructose and glucose monosaccharides; and wherein the average degree of polymerisation of saccharide A is at least 5 monosaccharide units lower than the average degree of polymerisation of saccharide B.
A method of forming a wind turbine blade, the wind turbine blade comprising: a main blade module defining a main body of the blade and including a first mating feature; and, a separate edge module defining at least part of a trailing edge of the blade and including a second mating feature, wherein the first mating feature is a tongue and the second mating feature is a recess complementary to the tongue, the method comprising: applying an adhesive to at least one of the first mating feature and the second mating feature; arranging the separate edge module relative to the main blade module such that the first and second mating features (28, 30) are mutually adjacent, wherein arranging the separate edge module relative to the main blade module includes receiving the tongue into the recess; and, applying a pressure force to squeeze the adhesive to bond the first and second mating features (28, 30) together, wherein the pressure force is caused by removing air from, or injecting air into, an air sealed region (49, 70). the wind turbine blade comprising: a main blade module defining a main body of the blade and including a first mating feature; and, a separate edge module defining at least part of a trailing edge of the blade and including a second mating feature, a main blade module defining a main body of the blade and including a first mating feature; and, a separate edge module defining at least part of a trailing edge of the blade and including a second mating feature, wherein the first mating feature is a tongue and the second mating feature is a recess complementary to the tongue, the method comprising: applying an adhesive to at least one of the first mating feature and the second mating feature; arranging the separate edge module relative to the main blade module such that the first and second mating features (28, 30) are mutually adjacent, wherein arranging the separate edge module relative to the main blade module includes receiving the tongue into the recess; and, applying a pressure force to squeeze the adhesive to bond the first and second mating features (28, 30) together, applying an adhesive to at least one of the first mating feature and the second mating feature; arranging the separate edge module relative to the main blade module such that the first and second mating features (28, 30) are mutually adjacent, wherein arranging the separate edge module relative to the main blade module includes receiving the tongue into the recess; and, applying a pressure force to squeeze the adhesive to bond the first and second mating features (28, 30) together, wherein the pressure force is caused by removing air from, or injecting air into, an air sealed region (49, 70).
Method for controlling the building of a reinforcing structure of tyres for vehicle wheels, comprising: - exerting, on at least one head portion of at least one reinforced continuous elongated element of elastomeric material, an attraction force towards a forming support; - depositing said at least one reinforced continuous elongated element of elastomeric material on said forming support with a predetermined tension force to form a coiled winding; - depositing at least one reinforcing layer in a radially outer position with respect to said coiled winding to form a reinforcing structure comprising said coiled winding and said at least one reinforcing layer, wherein between said coiled winding and said at least one reinforcing layer a mutual coupling force acts; - separating said reinforcing structure from said forming support through radial contraction of said forming support; wherein at least one of said attraction force and said tension force is controlled so that the sum of said attraction force and said tension force is lower than said coupling force. - exerting, on at least one head portion of at least one reinforced continuous elongated element of elastomeric material, an attraction force towards a forming support; - depositing said at least one reinforced continuous elongated element of elastomeric material on said forming support with a predetermined tension force to form a coiled winding; - depositing at least one reinforcing layer in a radially outer position with respect to said coiled winding to form a reinforcing structure comprising said coiled winding and said at least one reinforcing layer, wherein between said coiled winding and said at least one reinforcing layer a mutual coupling force acts; - separating said reinforcing structure from said forming support through radial contraction of said forming support;
A planar optical waveguide structure comprising: a core layer (10,20,32) having a first refractive index n core; an array of sub-regions (11,21,30) within the core layer (10,20,32) having a second refractive index n rods, the array of sub-regions (11,21,30) extending longitudinally along the waveguide and giving rise to a photonic band structure within the core layer (10,20,32); a cladding layer (13,22,31) having a third refractive index n cladding; and, a buffer layer (12,23,33) having a fourth refractive index n buffer, the core layer (10,20,32) being formed between the cladding layer (13,22,31) and the buffer layer (12,23,33), wherein: n core > n cladding and n buffer such that when an optical signal is propagating through the array of sub-regions (11,21,30) within the core layer (10,20,32), an evanescent field of the optical signal extends beyond the cladding layer, characterized in that n rods -n core > 0.1 a core layer (10,20,32) having a first refractive index n core; an array of sub-regions (11,21,30) within the core layer (10,20,32) having a second refractive index n rods, the array of sub-regions (11,21,30) extending longitudinally along the waveguide and giving rise to a photonic band structure within the core layer (10,20,32); a cladding layer (13,22,31) having a third refractive index n cladding; and, a buffer layer (12,23,33) having a fourth refractive index n buffer, the core layer (10,20,32) being formed between the cladding layer (13,22,31) and the buffer layer (12,23,33), wherein: n core > n cladding and n buffer n core > n cladding and n buffer such that when an optical signal is propagating through the array of sub-regions (11,21,30) within the core layer (10,20,32), an evanescent field of the optical signal extends beyond the cladding layer, characterized in that n rods -n core > 0.1