mhurhangee/ep-ind-claims huggingface dataset:
Process for making an absorbent core for an absorbent article, the absorbent core comprising a first nonwoven material bonded to a second nonwoven material and enclosing a superabsorbent material, wherein the bond is formed by an hotmelt construction adhesive, and whereby the first nonwoven material is more hydrophilic than the second nonwoven material; the process comprising the steps of a) providing a first nonwoven material, and advancing the first nonwoven material to an adhesive application station with construction adhesive; b) providing a second nonwoven material; c) applying with the adhesive application station the construction adhesive to the first nonwoven material on a first part of the first nonwoven material; d) advancing the second nonwoven material and the first nonwoven material with the adhesive, to a bonding station; e) bonding the first part of the first nonwoven material via the construction adhesive to a first part of the second nonwoven material. a) providing a first nonwoven material, and advancing the first nonwoven material to an adhesive application station with construction adhesive; b) providing a second nonwoven material; c) applying with the adhesive application station the construction adhesive to the first nonwoven material on a first part of the first nonwoven material; d) advancing the second nonwoven material and the first nonwoven material with the adhesive, to a bonding station; e) bonding the first part of the first nonwoven material via the construction adhesive to a first part of the second nonwoven material.
A resin system for an aqueous pulp slurry, wherein the resin system comprises - an aldehyde-functionalized polymer resin, which is a cationic glyoxylated polyacrylamide and which has the ratio of the number of substituted glyoxal groups to the number of glyoxal-reactive amide groups in excess of 0.03:1, and - a polyamidoamine epichlorohydrin resin, having an azetidinium content of 80% or less, wherein the azetidinium content r a refers to the mole ratio of azetidinium groups relative to the secondary amine groups on the base polymer r a = 2 ⋅ A ƒ A c + A c ′ where A f is the integration of chemical shift f, A c is the integration of chemical shift c, and A c' is the chemical shift of c', calculated by using 13C NMR method as described herein, wherein the ratio of aldehyde-functionalized polymer resin to polyamidoamine epichlorohydrin resin is 1:1 to 100:1, and wherein the aldehyde-functionalized polymer resin is 0.01 to 2.5 wt. % of the aqueous pulp slurry and the polyamidoamine epichlorohydrin resin is 0.01 to 2.5 wt. % of the aqueous pulp slurry. - an aldehyde-functionalized polymer resin, which is a cationic glyoxylated polyacrylamide and which has the ratio of the number of substituted glyoxal groups to the number of glyoxal-reactive amide groups in excess of 0.03:1, and - a polyamidoamine epichlorohydrin resin, having an azetidinium content of 80% or less, wherein the azetidinium content r a refers to the mole ratio of azetidinium groups relative to the secondary amine groups on the base polymer r a = 2 ⋅ A ƒ A c + A c ′ where A f is the integration of chemical shift f, A c is the integration of chemical shift c, and A c' is the chemical shift of c', calculated by using 13C NMR method as described herein, wherein the ratio of aldehyde-functionalized polymer resin to polyamidoamine epichlorohydrin resin is 1:1 to 100:1, and wherein the aldehyde-functionalized polymer resin is 0.01 to 2.5 wt. % of the aqueous pulp slurry and the polyamidoamine epichlorohydrin resin is 0.01 to 2.5 wt. % of the aqueous pulp slurry. where A f is the integration of chemical shift f, A c is the integration of chemical shift c, and A c' is the chemical shift of c', calculated by using 13C NMR method as described herein, wherein the ratio of aldehyde-functionalized polymer resin to polyamidoamine epichlorohydrin resin is 1:1 to 100:1, and wherein the aldehyde-functionalized polymer resin is 0.01 to 2.5 wt. % of the aqueous pulp slurry and the polyamidoamine epichlorohydrin resin is 0.01 to 2.5 wt. % of the aqueous pulp slurry.
An air maintenance tire assembly comprising: a tire having a tire cavity bounded by first and second sidewalls (18, 20) extending to a tire tread region; a tire-mounted air pumping means (30, 32) for pumping pressurized air or tire-generated pressurized air into the tire cavity to maintain air pressure within the tire cavity at a defined pressure level; a tire having an elongate valve stem projecting outward from the tire cavity, the valve stem having an internal valve stem air passageway in communication with the tire cavity operative to direct pressurized air from the valve stem air passageway into the cavity; and a pressure control assembly positioned at a control location in proximal relationship to the valve stem and operative to control a flow of pressurized air from the tire-mounted air pumping means into the tire cavity responsive to a detected air pressure level within the tire cavity; characterized in that the pressure control assembly comprises a bi-directional air distribution block having a plurality of air pathways, wherein each air pathway is coupled to a respective conduit (36, 38) connected to the tire mounted air pumping means, wherein the plurality of conduits (36, 38) are configured to operate alternatively to deliver ambient non-pressurized air to the air pumping means in response to directional tire rotation against a ground surface. a tire having a tire cavity bounded by first and second sidewalls (18, 20) extending to a tire tread region; a tire-mounted air pumping means (30, 32) for pumping pressurized air or tire-generated pressurized air into the tire cavity to maintain air pressure within the tire cavity at a defined pressure level; a tire having an elongate valve stem projecting outward from the tire cavity, the valve stem having an internal valve stem air passageway in communication with the tire cavity operative to direct pressurized air from the valve stem air passageway into the cavity; and a pressure control assembly positioned at a control location in proximal relationship to the valve stem and operative to control a flow of pressurized air from the tire-mounted air pumping means into the tire cavity responsive to a detected air pressure level within the tire cavity; characterized in that the pressure control assembly comprises a bi-directional air distribution block having a plurality of air pathways, wherein each air pathway is coupled to a respective conduit (36, 38) connected to the tire mounted air pumping means, wherein the plurality of conduits (36, 38) are configured to operate alternatively to deliver ambient non-pressurized air to the air pumping means in response to directional tire rotation against a ground surface.
An inflatable pool assembly comprising: an inner wall defining a water cavity; an outer wall cooperating with the inner wall to define an inflatable chamber; a plurality of water sprayers spaced around the water cavity, each of the plurality of water sprayers comprising: a suction module positioned at least partially within the inflatable chamber and having an air inlet positioned at the outer wall; an outlet module positioned at least partially within the inflatable chamber and having a mixed outlet positioned at the inner wall, wherein the mixed outlet is in fluid communication with the air inlet and a water inlet; a connecting pipe between the suction module and the outlet module; and a water inlet valve positioned within the inflatable chamber and coupled to each outlet module by a pipe. an inner wall defining a water cavity; an outer wall cooperating with the inner wall to define an inflatable chamber; a plurality of water sprayers spaced around the water cavity, each of the plurality of water sprayers comprising: a suction module positioned at least partially within the inflatable chamber and having an air inlet positioned at the outer wall; an outlet module positioned at least partially within the inflatable chamber and having a mixed outlet positioned at the inner wall, wherein the mixed outlet is in fluid communication with the air inlet and a water inlet; a connecting pipe between the suction module and the outlet module; and a suction module positioned at least partially within the inflatable chamber and having an air inlet positioned at the outer wall; an outlet module positioned at least partially within the inflatable chamber and having a mixed outlet positioned at the inner wall, wherein the mixed outlet is in fluid communication with the air inlet and a water inlet; a connecting pipe between the suction module and the outlet module; and a water inlet valve positioned within the inflatable chamber and coupled to each outlet module by a pipe.
A semiconductor device, comprising: a substrate (101, 201, 601, 701, 901, 1001, 1101); a semiconductor layer (102, 202, 602, 702, 902, 1002, 1102) disposed on the substrate; a first protective film (103, 203, 604, 704, 904, 1004, 1104) disposed on the semiconductor layer; a first adhesive layer (104, 204, 609, 709, 909, 1009, 1109) disposed on the first protective film, and formed of a single layer of Ti, TiN, Ta, or TaN or a laminate of a combination thereof; an electrode pad (105, 610) disposed on the first protective film and in contact with side surfaces and part of an upper surface of the first adhesive layer; a second protective film (106, 608) disposed to cover and be in contact with the electrode pad and the first adhesive layer; and a first opening (107, 611) formed in part of the second protective film such that an upper surface of the electrode pad is exposed, characterized in that in a plan view, the first adhesive layer includes a first projection projecting from the electrode pad and continuously surrounding the electrode pad, and the second protective film is continuously disposed to cover and be in contact with a peripheral portion of the upper surface and part of side surfaces of the electrode pad, an upper surface and side surfaces of the first projection, and the first protective film. a substrate (101, 201, 601, 701, 901, 1001, 1101); a semiconductor layer (102, 202, 602, 702, 902, 1002, 1102) disposed on the substrate; a first protective film (103, 203, 604, 704, 904, 1004, 1104) disposed on the semiconductor layer; a first adhesive layer (104, 204, 609, 709, 909, 1009, 1109) disposed on the first protective film, and formed of a single layer of Ti, TiN, Ta, or TaN or a laminate of a combination thereof; an electrode pad (105, 610) disposed on the first protective film and in contact with side surfaces and part of an upper surface of the first adhesive layer; a second protective film (106, 608) disposed to cover and be in contact with the electrode pad and the first adhesive layer; and a first opening (107, 611) formed in part of the second protective film such that an upper surface of the electrode pad is exposed, characterized in that in a plan view, the first adhesive layer includes a first projection projecting from the electrode pad and continuously surrounding the electrode pad, and the second protective film is continuously disposed to cover and be in contact with a peripheral portion of the upper surface and part of side surfaces of the electrode pad, an upper surface and side surfaces of the first projection, and the first protective film.
A method for producing a phenolic antioxidant in the presence of an olefin polymer, wherein a phenolic antioxidant represented by the General Formula below: (wherein R represents C 12 -C 24 alkyl which is optionally branched, C 3 -C 12 cycloalkyl which is optionally substituted, or C 6 -C 18 aryl which optionally has a substituent(s)) which is masked by an organoaluminum compound and contained in an olefin polymer obtained by supplying said masked phenolic antioxidant upon polymerization is recycled to a phenolic body, wherein a nitrogen gas comprising water and/or a proton donor at a volume ratio of 1.0×10 -6 to 2.5×10 -2 with respect to 1 volume of nitrogen is brought into contact with said olefin polymer.
A sample holder (12, 32) for use in a centrifuge, the sample holder (12, 32) being generally planar and comprising: an aperture or recess for releasably retaining a sample storage member including a sample chamber adapted to contain a volume of liquid; a centre point around which the holder (12, 32) will rotate during use; and one or more calibration features (17, 45, 46, 51, 52), wherein the calibration feature(s) (17, 45, 46, 51, 52) comprise one or more outer edges (20, 44a-d, 48a-f, 53), which lie on the side of the or each calibration feature (17, 45, 46, 51, 52) which is furthest from the centre point, and the one or more outer edges (20, 44a-d, 48a-f, 53) comprise a series of radially spaced-apart outer edge portions or positions which are spaced at different distances from the centre point as a function of angular position around the centre point, and wherein the or each calibration feature (17, 45, 46, 51, 52) is an aperture formed through the entire thickness of the holder (12, 32), or is an insert of a transparent or substantially transparent material which is placed into a hole in the holder (12,32). an aperture or recess for releasably retaining a sample storage member including a sample chamber adapted to contain a volume of liquid; a centre point around which the holder (12, 32) will rotate during use; and one or more calibration features (17, 45, 46, 51, 52), wherein the calibration feature(s) (17, 45, 46, 51, 52) comprise one or more outer edges (20, 44a-d, 48a-f, 53), which lie on the side of the or each calibration feature (17, 45, 46, 51, 52) which is furthest from the centre point, and the one or more outer edges (20, 44a-d, 48a-f, 53) comprise a series of radially spaced-apart outer edge portions or positions which are spaced at different distances from the centre point as a function of angular position around the centre point, and wherein the or each calibration feature (17, 45, 46, 51, 52) is an aperture formed through the entire thickness of the holder (12, 32), or is an insert of a transparent or substantially transparent material which is placed into a hole in the holder (12,32).
A topical composition comprising glycerin, microcrystalline cellulose and silica beads having a particle size D v 0 of greater 0.3 μm, a D v 100 of less than 35 μm, a Dv50 selected in the range of 9 to 15 μm determined by a Coulter LS13320 or Malvern Mastersizer 2000 and an oil absorption capacity selected in the range of 1.2-2.5 cc/g, characterized in that the composition is an oil-in-water (O/W) emulsion comprising an oily phase dispersed in an aqueous phase in the presence of a potassium cetyl phosphate.
Device for securing and positioning an optical reading system for electromechanical electricity meters comprising at least one quick positioning element to be secured on the meter and an end positioning element carrying a sensor; the quick positioning element and the end positioning element being hinged against one another, characterised in that the sensor is extends in the direction of the meter, through a notch (D1') made in the quick positioning element, such that the sensor is close to the disc of said meter.
A method for transferring at least one filling needle of a number of filling needles into an isolator, in particular an aseptic isolator, which has a transfer lock, the method having the following steps: Providing of a first needle carrier within the transfer lock, said needle carrier carrying the number of filling needles; Providing of a second needle carrier in a first position within the isolator; Robot-assisted transferring of the at least one filling needle of the number of filling needles from the first needle carrier to the second needle carrier; and Robot-assisted placing of the at least one filling needle of the number of filling needles in the second needle carrier, wherein the at least one filling needle of the number of filling needles is held directly during the robot-assisted placing. Providing of a first needle carrier within the transfer lock, said needle carrier carrying the number of filling needles; Providing of a second needle carrier in a first position within the isolator; Robot-assisted transferring of the at least one filling needle of the number of filling needles from the first needle carrier to the second needle carrier; and Robot-assisted placing of the at least one filling needle of the number of filling needles in the second needle carrier, wherein the at least one filling needle of the number of filling needles is held directly during the robot-assisted placing.
Proinsulin glargine, comprising an amino acid sequence having the following structure: (B 1 -B 32)-(A 1- A 20)-A 21; wherein, B 1 -B 32 is formed by adding two arginine Arg residues behind a C-terminal of a B 30 site of B 1 -B 30 in a Chain B of natural human insulin; A 1 -A 20 is an insulin Chain A having 20 amino acids; and A 21 is glycine; wherein the structure of the amino acid sequence is: R-R 1 -(B 1 -B 32)-(A 1 -A 20)-A 21, wherein, R-R 1 is a fusion peptide sequence, and the amino acid sequence of R is MATX 1 AVSVLKGDGPVQGIINFEQX 2 ESNGPVKVWGSIX 3 GLTEGLHGFHVHEFGDNTAGS TSAGP; X 1 is proline or histidine; X 2 is proline or histidine; X 3 is proline or histidine; and R 1 is arginine or lysine. B 1 -B 32 is formed by adding two arginine Arg residues behind a C-terminal of a B 30 site of B 1 -B 30 in a Chain B of natural human insulin; A 1 -A 20 is an insulin Chain A having 20 amino acids; and A 21 is glycine; R-R 1 is a fusion peptide sequence, and the amino acid sequence of R is MATX 1 AVSVLKGDGPVQGIINFEQX 2 ESNGPVKVWGSIX 3 GLTEGLHGFHVHEFGDNTAGS TSAGP; X 1 is proline or histidine; X 2 is proline or histidine; X 3 is proline or histidine; and R 1 is arginine or lysine.
A side-reinforcing rubber for run-flat tires, comprising a vulcanized rubber which is formed from a rubber composition comprising a rubber component containing a dienic rubber, a vulcanizing agent, and a carbon black having a dibutyl phthalate oil absorption of 120 mL/100 g or more, and has a specific surface area according to a nitrogen adsorption method of 20 to 80 m 2 /g, with a ratio of an Sx bond (where x is 3 or more) to all sulfide bonds in the side-reinforcing rubber for run-flat tires being 40% or less, wherein the ratio of an Sx bond is determined as specified in the description.
A molten metal holding container (1,101) comprising an outer wall having a bottom at a lower end in a vertical direction, and an inner wall having a bottom at a lower end in the vertical direction, the inner wall being disposed inside the outer wall, in which a depressurized first sealed space is formed between the outer wall and the inner wall, and the molten metal holding container (1,101) is configured to contain molten metal inside the inner wall, and wherein the molten metal holding container further comprises: an extraction outer pipe extending from the outer wall in a horizontal direction, a space inside the extraction outer pipe being connected to a space inside the outer wall; an extraction inner pipe for extracting the molten metal from inside the inner wall, the extraction inner pipe being disposed inside the extraction outer pipe and extending from the inner wall in the horizontal direction, a space inside the extraction inner pipe being connected to a space inside the inner wall; and a load receiving part including a first protrusion protruding from an outer circumference of the inner wall in the horizontal direction and a second protrusion protruding from an inner circumference of the outer wall in the horizontal direction so as to be opposed to the first protrusion in a vertical direction, the second protrusion being configured to receive a load of the inner wall through the first protrusion, a depressurized second sealed space is formed between the extraction outer pipe and the extraction inner pipe, the second sealed spaced being connected to the first sealed space, and a vertical position of a vertically lower-side surface of the first protrusion supported by the outer wall through the second protrusion coincides with a vertical position of a central axis of the extraction inner pipe. an extraction outer pipe extending from the outer wall in a horizontal direction, a space inside the extraction outer pipe being connected to a space inside the outer wall; an extraction inner pipe for extracting the molten metal from inside the inner wall, the extraction inner pipe being disposed inside the extraction outer pipe and extending from the inner wall in the horizontal direction, a space inside the extraction inner pipe being connected to a space inside the inner wall; and a load receiving part including a first protrusion protruding from an outer circumference of the inner wall in the horizontal direction and a second protrusion protruding from an inner circumference of the outer wall in the horizontal direction so as to be opposed to the first protrusion in a vertical direction, the second protrusion being configured to receive a load of the inner wall through the first protrusion,
Apparatus for determining at least one property of a person's foot, the apparatus comprising: a surface configured to allow a person to stand thereon; a plurality of pressure sensors located under the surface; and computing means arranged to receive signals representing pressure measurements from at least a subset of the plurality of pressure sensors while a person stands upon the surface, the computing means being operable to process the signals to: determine a point of force for the person standing on the surface; compare the person's determined point of force with a target zone for the point of force; provide a display indicating a difference between the person's determined point of force and the target zone to assist the person in changing his point of force to bring it into the target zone; and determine at least one property of the person's foot using signals representing pressure measurements from at least the subset of the plurality of pressure sensors when the person's determined point of force falls in the target zone. a surface configured to allow a person to stand thereon; a plurality of pressure sensors located under the surface; and computing means arranged to receive signals representing pressure measurements from at least a subset of the plurality of pressure sensors while a person stands upon the surface, the computing means being operable to process the signals to: determine a point of force for the person standing on the surface; compare the person's determined point of force with a target zone for the point of force; provide a display indicating a difference between the person's determined point of force and the target zone to assist the person in changing his point of force to bring it into the target zone; and determine at least one property of the person's foot using signals representing pressure measurements from at least the subset of the plurality of pressure sensors when the person's determined point of force falls in the target zone. determine a point of force for the person standing on the surface; compare the person's determined point of force with a target zone for the point of force; provide a display indicating a difference between the person's determined point of force and the target zone to assist the person in changing his point of force to bring it into the target zone; and determine at least one property of the person's foot using signals representing pressure measurements from at least the subset of the plurality of pressure sensors when the person's determined point of force falls in the target zone.