mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas purifying catalyst comprising: a catalyst substrate: and a catalyst coating layer containing a noble metal and a refractory inorganic oxide, and formed on the catalyst substrate, wherein the catalyst coating layer includes an upstream portion located upstream and a downstream portion located downstream in a flow direction of an exhaust gas, wherein the upstream portion has a layered structure including an upstream portion inside layer and an upstream portion outside layer, wherein the upstream portion inside layer contains a cerium-zirconium composite oxide in which a relative proportion of CeO 2 is 50 to 95 wt%, as the refractory inorganic oxide, and the upstream portion outside layer contains a cerium-zirconium composite oxide in which a relative proportion of ZrO 2 is 50 to 95 wt%, as the refractory inorganic oxide, and wherein the upstream portion outside layer and the downstream portion contain Rh as the noble metal, wherein the noble metal contained in the upstream portion outside layer is Rh only; and an amount of Rh contained in the upstream portion, outside layer is larger than an amount of Rh contained in the downstream portion. a catalyst substrate: and a catalyst coating layer containing a noble metal and a refractory inorganic oxide, and formed on the catalyst substrate, wherein the catalyst coating layer includes an upstream portion located upstream and a downstream portion located downstream in a flow direction of an exhaust gas, wherein the upstream portion has a layered structure including an upstream portion inside layer and an upstream portion outside layer, wherein the upstream portion inside layer contains a cerium-zirconium composite oxide in which a relative proportion of CeO 2 is 50 to 95 wt%, as the refractory inorganic oxide, and the upstream portion outside layer contains a cerium-zirconium composite oxide in which a relative proportion of ZrO 2 is 50 to 95 wt%, as the refractory inorganic oxide, and wherein the upstream portion outside layer and the downstream portion contain Rh as the noble metal, wherein the noble metal contained in the upstream portion outside layer is Rh only; and an amount of Rh contained in the upstream portion, outside layer is larger than an amount of Rh contained in the downstream portion.
Manhole cover with a supporting structure device comprising force distribution ribs for supporting a top surface of the manhole cover that can be driven over, and a substantially centrally arranged, preferably hollow, force distribution cylinder, in particular a circular force distribution cylinder, for supporting the force distribution ribs, characterized by a force distribution plate for relieving the load on the force distribution cylinder, wherein the force distribution plate at least substantially completely covers an underside of the force distribution cylinder opposite to the top surface, and wherein the force distribution ribs merge smoothly into the force distribution plate.
A wind turbine rotating electric machine frame, the frame extending about an axis of rotation and comprising a tubular structure having a cylindrical face and designed to support a plurality of active segments along the cylindrical face; an annular flange for connection to a main frame of a wind turbine; and a ring having an annular seat for a bearing; and wherein the tubular structure, the annular flange, and the ring are formed in one piece, characterised in that the annular flange and the ring are connected by first arms.
An antenna device comprising: a folded dipole antenna comprising an antenna element, the antenna element being a folded flat metal plate and having a folded structure; and a board on which the antenna element is mounted, wherein the antenna element includes an antenna element body, an unfolded shape of the antenna element body is in mirror symmetry with respect to a line of symmetry, and the antenna element body includes side parts (21a, 21b) parted by the line of symmetry, characterized in that each of the side parts has four or more folding lines (B1 to B5). a folded dipole antenna comprising an antenna element, the antenna element being a folded flat metal plate and having a folded structure; and a board on which the antenna element is mounted, wherein the antenna element includes an antenna element body, an unfolded shape of the antenna element body is in mirror symmetry with respect to a line of symmetry, and the antenna element body includes side parts (21a, 21b) parted by the line of symmetry, characterized in that each of the side parts has four or more folding lines (B1 to B5).
A thermoplastic composition comprising a) a blend of polypropylene and polyethylene, b) an ethylene epoxide copolymer, and c) an ethylene/propylene copolymer grafted or copolymerized with a carboxylic acid or a derivative thereof. a) a blend of polypropylene and polyethylene, b) an ethylene epoxide copolymer, and c) an ethylene/propylene copolymer grafted or copolymerized with a carboxylic acid or a derivative thereof.
A heat exchanger comprising: a core including: a plurality of core plates (15, 15A, 15B, 15C, 15D, 15E) which is stacked; first passages in which a first medium flows; second passages in which a second medium flows, the first passages and the second passages being alternately formed between adjacent core plates in a stacking direction; and a first vertical passage (L3; L1A) in which the first medium or the second medium flows, the first vertical passage being formed along the stacking direction; a base plate including a passage port (29; 28A) formed therethrough; and a distance plate (13; 13A) interposed between the base plate and the core; wherein the first vertical passage (L3; L1A) and the passage port (29; 28A) are arranged apart from each other in a direction orthogonal to the stacking direction and communicated with each other by a communication passage (43; 43A), wherein the distance plate (13; 13A) includes a bottom wall part and a swelling part (40; 40A), the bottom wall part being a thin plate-shaped and being joined to an upper surface of the base plate, the swelling part (40; 40A) swelling up in the stacking direction from the bottom wall part so as to surround a circumference of the communication passage (43; 43A) which communicates the first vertical passage (L3; L1A) with the passage (29; 28A) port and being joined to a lowermost surface of the core in a flange part of a tip of the swelling part (40; 40A), characterized in that the distance plate (13, 13A) is rectangular and shallow plate shaped like the core plates (15, 15A, 15B, 15C, 15D, 15E), and wherein an auxiliary passage in which the first medium or the second medium flow is formed between an upper surface of the bottom wall part of the distance plate (13; 13A) and a lowermost surface of the core plate; and the auxiliary passage and the communication passage (43; 43A) are partitioned by the swelling part (40; 40A). a plurality of core plates (15, 15A, 15B, 15C, 15D, 15E) which is stacked; first passages in which a first medium flows; second passages in which a second medium flows, the first passages and the second passages being alternately formed between adjacent core plates in a stacking direction; and a first vertical passage (L3; L1A) in which the first medium or the second medium flows, the first vertical passage being formed along the stacking direction; a base plate including a passage port (29; 28A) formed therethrough; and a distance plate (13; 13A) interposed between the base plate and the core;
A radar level gauging system, including a device arranged to feed at least two distinguishable microwave signals to one and the same antenna unit, wherein each of said microwave signals is distributed by means of respective signal guides in the form of transmission lines via channels being functionally independent of each other, characterized in that the device comprises a feeding means having: - at least two wave guide members (6a, 6b, 6c); each one of said wave guide members receiving one of said microwave signals via a respective one of said signal guides for forwarding the microwave signal to the wave guide member (6a, 6b, 6c) and - one wave guide outlet common to said wave guide members (6a, 6b, 6c), wherein said wave guide outlet is located at a wave guide member interconnection for feeding said antenna unit with said distinguishable microwaves from said outlet, wherein said wave guide members and said wave guide outlet are constituted by a turnstile junction arranged to provide functional independence of said channels, and wherein at least one of said transmission lines is galvanically insulated from its respective wave guide member. - at least two wave guide members (6a, 6b, 6c); each one of said wave guide members receiving one of said microwave signals via a respective one of said signal guides for forwarding the microwave signal to the wave guide member (6a, 6b, 6c) and - one wave guide outlet common to said wave guide members (6a, 6b, 6c), wherein said wave guide outlet is located at a wave guide member interconnection for feeding said antenna unit with said distinguishable microwaves from said outlet,
A nutritional composition comprising a combination of Bifidobacterium breve and non-digestible oligosaccharides for use in preventing and/or reducing the risk of occurrence of fatty liver disease later in life in a human subject by administration of the nutritional composition to the human subject early in life, wherein the nutritional composition is an infant formula or follow on formula or young child formula, and wherein the composition comprises a mixture of galacto-oligosaccharides and fructo-oligosaccharides, and wherein early in life is when the human subject has an age of 0 to 36 months and wherein later in life is when the human subject has an age above 5 years.
A cylindrical sieve, comprising: a cylindrical sieve body made from a corrugated plate having wave crests formed along an axial direction of the cylindrical sieve and wave troughs formed along the axial direction of the cylindrical sieve, said wave crests and said troughs being arranged alternately along the circumference of the cylindrical sieve, with a large number of apertures having an oval shape characterized in that the apertures having an oval shape with a longitudinal axis aligned in the axial direction of the cylindrical sieve are formed in the corrugated plate, and said apertures are formed on all sides of said wave crests, wave troughs and planar inclined areas on the boundaries between the wave crests and wave troughs. a cylindrical sieve body made from a corrugated plate having wave crests formed along an axial direction of the cylindrical sieve and wave troughs formed along the axial direction of the cylindrical sieve, said wave crests and said troughs being arranged alternately along the circumference of the cylindrical sieve, with a large number of apertures having an oval shape characterized in that the apertures having an oval shape with a longitudinal axis aligned in the axial direction of the cylindrical sieve are formed in the corrugated plate, and said apertures are formed on all sides of said wave crests, wave troughs and planar inclined areas on the boundaries between the wave crests and wave troughs.
A current supplying circuit for suppliying an ignition pulse to actuate an electric igniter arranged in a gas generator at a time of actuation of the air bag gas generator, comprising: a first connector for connecting the current supplying circuit to an external power source; and a second connector for connecting the current supplying circuit to the electric igniter; characterized in that the width of the ignition pulse is 20 to 500 μsec. a first connector for connecting the current supplying circuit to an external power source; and a second connector for connecting the current supplying circuit to the electric igniter; characterized in that the width of the ignition pulse is 20 to 500 μsec.
Transmitter (TR-ZI) for wirelessly transmitting an additional information signal, the transmitter (TR-ZI) being set up to broadcast the additional information signal as a function of a control signal, characterised in that the control signal corresponds to a moment of transmission within a guard interval of a wirelessly transferred primary information signal originating from another transmitter (TR1, TR2), and the transmitter is set up to broadcast the additional information signal wirelessly at the moment of transmission within the guard interval of the primary information signal.
Quinolone antibiotic of the general formula I, II, III or IV: wherein R 1 in formula I and formula IV is H, halogen, or NH 2, R 1 in formula II and formula III is halogen, or NH 2, R 2 is halogen, or H, R 3 is or the residue of an amino acid after amidic bonding to the quinolone basic skeleton, wherein the carbonyl group adjacent to R 3 is derived from the acid function of the amino acid; wherein the amino acid is selected from: R 4 is H, OCH 3, OCHF 2, CN, C 1-6 alkoxy, halogen, or NH 2 R 5 is H and R 6 is selected from Cyclopropyl Cyclobutyl Ethyl Propyl Methyl for use in the treatment of bacterial infections. R 1 in formula I and formula IV is H, halogen, or NH 2, R 1 in formula II and formula III is halogen, or NH 2, R 2 is halogen, or H, R 3 is or the residue of an amino acid after amidic bonding to the quinolone basic skeleton, wherein the carbonyl group adjacent to R 3 is derived from the acid function of the amino acid; wherein the amino acid is selected from: R 4 is H, OCH 3, OCHF 2, CN, C 1-6 alkoxy, halogen, or NH 2 R 5 is H and R 6 is selected from Cyclopropyl Cyclobutyl Ethyl Propyl Methyl for use in the treatment of bacterial infections.
A lithium ion battery comprising electrodes, at least one of said electrodes comprising a conductor and an electrode coating, said electrode coating comprising as electronically active material a transition metal oxidenitride of formula Li x T I m T II n N y O z in form of nanoparticles, wherein x = 0-3, y + z = 2 - 4, y > 0, z >= 0.25, m+n = 1, m = 0-1, n = 0-1, wherein T I and T II are selected from Nb and Mo.
A polysaccharide preparation having the following characteristics: a) the polysaccharide preparation has anti-Xa activity and anti-IIa activity each less than 50 IU/mg; b) the polysaccharide preparation includes polysaccharides that include Formula I: [U w -H x,y,z] m ~[U G H x,y,z] n wherein each occurrence of U indicates a uronic acid residue and each occurrence of H indicates a hexosamine residue; m and n are integers such that m = 4-16, and n = 1-4; each of w, x, y, and z can, independently, be the same or different for each occurrence of [U w -H x,y,z], and each of x, y, and z can, independently, be the same or different for each occurrence of [U G -H x,y,z]; w = -2OS or -2OH; x = NS or NAc; y = -3OS or -3OH; z = -6OS or -6OH; and and wherein the symbol ~ indicates that the units marked m and n are distributed along the polysaccharide chain and are not necessarily in sequence; c) the polysaccharide preparation has a molecular weight distribution such that 10-50% of the oligosaccharides of the preparation have a molecular weight < 3000 Da; 40-65% of the oligosaccharides have a molecular weight between 3000-8000 Da; and 5-30% of the oligosaccharides have a molecular weight > 8000 Da; and d) the polysaccharide preparation has less than 25% glycol split uronic acid residues. a) the polysaccharide preparation has anti-Xa activity and anti-IIa activity each less than 50 IU/mg; b) the polysaccharide preparation includes polysaccharides that include Formula I: [U w -H x,y,z] m ~[U G H x,y,z] n wherein each occurrence of U indicates a uronic acid residue and each occurrence of H indicates a hexosamine residue; m and n are integers such that m = 4-16, and n = 1-4; each of w, x, y, and z can, independently, be the same or different for each occurrence of [U w -H x,y,z], and each of x, y, and z can, independently, be the same or different for each occurrence of [U G -H x,y,z]; w = -2OS or -2OH; x = NS or NAc; y = -3OS or -3OH; z = -6OS or -6OH; and and wherein the symbol ~ indicates that the units marked m and n are distributed along the polysaccharide chain and are not necessarily in sequence; each occurrence of U indicates a uronic acid residue and each occurrence of H indicates a hexosamine residue; m and n are integers such that m = 4-16, and n = 1-4; each of w, x, y, and z can, independently, be the same or different for each occurrence of [U w -H x,y,z], and each of x, y, and z can, independently, be the same or different for each occurrence of [U G -H x,y,z]; w = -2OS or -2OH; x = NS or NAc; y = -3OS or -3OH; z = -6OS or -6OH; and and wherein the symbol ~ indicates that the units marked m and n are distributed along the polysaccharide chain and are not necessarily in sequence; c) the polysaccharide preparation has a molecular weight distribution such that 10-50% of the oligosaccharides of the preparation have a molecular weight < 3000 Da; 40-65% of the oligosaccharides have a molecular weight between 3000-8000 Da; and 5-30% of the oligosaccharides have a molecular weight > 8000 Da; and d) the polysaccharide preparation has less than 25% glycol split uronic acid residues.
A bin holder carcass (9; 109), in particular for waste bins, for a drawer having a compartment delimited by two opposite parallel side walls, and a panel door connected to each side wall by means of respective carriages, each of which comprises, in turn, a sideboard, in particular flat and vertical, and a horizontal board; wherein the bin holder carcass (9; 109) comprises a frame having an opening to house one or more waste bins; wherein the frame has a substantially rectangular shape in plan view with a longitudinal axis and comprises a first and a second longitudinal edge (13; 13I, 13II) and a first and a second transverse edge (14; 14I, 14II); wherein said longitudinal and transverse edges (13, 14) delimit laterally said opening; wherein the bin holder carcass comprises a first and a second support element (16, 17; 116, 127, 17) to connect, in use, said frame to a respective sideboard of the drawer; wherein said first support element (161, 171; 1161, 1271, 171) is connected to said first longitudinal edge; and wherein said second support element (1611, 1711; 116II, 127II, 1711) is connected to said second longitudinal edge; wherein each support element (16, 17; 116, 127, 17) comprises, in turn, a sideboard wall (16; 116) and an abutment wall; wherein the sideboard wall (16; 116) is substantially perpendicular to said frame and said abutment wall is substantially parallel to said frame, characterized in that the frame and the support elements (16, 17; 116, 127, 17) are one single body; and in that the frame and each support element (16, 17; 116, 127, 17) have been produced by means of one single metal sheet; wherein the sideboard wall (16;161, 1611) delimits longitudinally the opening of the frame.
A silicon nitride film-forming method comprising the steps of: supplying a gas material including silane gas, ammonia gas and nitrogen gas in such a manner that the flow rate of the nitrogen gas is 1 to 5 times the total flow rate of the silane gas and the ammonia gas; and carrying out inductively coupled plasma-enhanced chemical vapor deposition to form a silicon nitride film. supplying a gas material including silane gas, ammonia gas and nitrogen gas in such a manner that the flow rate of the nitrogen gas is 1 to 5 times the total flow rate of the silane gas and the ammonia gas; and carrying out inductively coupled plasma-enhanced chemical vapor deposition to form a silicon nitride film.
A header for an agricultural harvester comprising a frame, the header comprising: a reel assembly including: a first reel and a second reel spaced from the first reel by a fixed distance; a reel support structure supporting the first and second reels (200L, 200R) for movement between first and second positions; and, a crop divider connected to the reel support structure, the header being characterised in that, the reel support structure comprises a first cam assembly engaged with the first reel and a second cam assembly engaged with the second reel; and, the crop divider extends between the first and second cam assemblies (222A, 222B) to substantially span the width of the fixed distance. a first reel and a second reel spaced from the first reel by a fixed distance; a reel support structure supporting the first and second reels (200L, 200R) for movement between first and second positions; and, a crop divider connected to the reel support structure, the header being characterised in that, the reel support structure comprises a first cam assembly engaged with the first reel and a second cam assembly engaged with the second reel; and, the crop divider extends between the first and second cam assemblies (222A, 222B) to substantially span the width of the fixed distance.
An integrated circuit comprising: a power gated circuit block (14A-14C); a plurality of power switches (20A-20E) each coupled between a global voltage node and a virtual voltage node of the power-gated circuit block (14A-14C), wherein the plurality of power switches (20A-20E) are configured to be activated sequentially responsive to receiving an enable signal, and wherein the plurality of power switches (20A-20E) are configured to be activated initially at a first rate and further configured to be activated sequentially at a minimum of a second rate responsive to an increase of the voltage on the virtual voltage node; and a delay chain having a plurality of serially-coupled delay elements, wherein an output of each of the serially-coupled delay elements is coupled to activate a corresponding one of the power switches (20A-20E), wherein the delay chain is configured to receive and propagate the enable signal through the delay chain, wherein each of the plurality of serially-coupled delay elements is configured to reduce an amount of delay provided therefrom responsive to an increase of the voltage on the virtual voltage node. a power gated circuit block (14A-14C); a plurality of power switches (20A-20E) each coupled between a global voltage node and a virtual voltage node of the power-gated circuit block (14A-14C), wherein the plurality of power switches (20A-20E) are configured to be activated sequentially responsive to receiving an enable signal, and wherein the plurality of power switches (20A-20E) are configured to be activated initially at a first rate and further configured to be activated sequentially at a minimum of a second rate responsive to an increase of the voltage on the virtual voltage node; and a delay chain having a plurality of serially-coupled delay elements, wherein an output of each of the serially-coupled delay elements is coupled to activate a corresponding one of the power switches (20A-20E), wherein the delay chain is configured to receive and propagate the enable signal through the delay chain, wherein each of the plurality of serially-coupled delay elements is configured to reduce an amount of delay provided therefrom responsive to an increase of the voltage on the virtual voltage node.
Cosmetic composition comprising: - an aqueous phase optionally comprising one or more polyols, the amount of polyol(s) then ranging from 0.5 to 15% by weight relative to the total weight of the composition, - at least 35% by weight of jojoba oil relative to the total weight of the composition, and - at least one sucrose fatty acid ester. - an aqueous phase optionally comprising one or more polyols, the amount of polyol(s) then ranging from 0.5 to 15% by weight relative to the total weight of the composition, - at least 35% by weight of jojoba oil relative to the total weight of the composition, and - at least one sucrose fatty acid ester.