mhurhangee/patent-ind-claim-en huggingface dataset:
An aluminum alloy, based on the total weight of the aluminum alloy, the aluminum alloy comprising: 8-11% of Si; 2-4% of Cu; 0.6-4% of Zn; 0.65-1.1% of Mn; 0.35-0.65% of Mg; 0.001-0.05% of Cr; 0.01-0.03% of Sr; 0.08-0.12% of Ti; 0.008-0.02% of B; 0.1-0.3% of Fe; 0.01-0.02% of Ga; 0.008-0.015% of Sn; at most 0.01% of P; and the balance of Al and less than 0.1% of inevitable impurities. 8-11% of Si; 2-4% of Cu; 0.6-4% of Zn; 0.65-1.1% of Mn; 0.35-0.65% of Mg; 0.001-0.05% of Cr; 0.01-0.03% of Sr; 0.08-0.12% of Ti; 0.008-0.02% of B; 0.1-0.3% of Fe; 0.01-0.02% of Ga; 0.008-0.015% of Sn; at most 0.01% of P; and the balance of Al and less than 0.1% of inevitable impurities.
A method of layline labeling a hose product (38; 50; 60; 70) comprising the steps of: providing a layline material (10; 10a) including a carrier film and a plurality of ink regions (18; 18a, 16; 68; 78, 80) applied to an ink side of the carrier film; applying a laser to laser-treat the ink side of the carrier film material to remove a first portion of ink from the ink regions of the carrier film to form a pattern of labeling (13; 13a; 52; 66; 76); applying the laser treated layline material to an outer surface of the hose product with the ink side against the hose product; curing the hose product with the laser treated layline material; and removing the carrier film after curing, wherein a second portion (16; 68; 78, 80) of the ink regions of the laser treated layline material not removed by the laser treatment remains bonded to an outer layer (62; 72) of the hose product to provide contrast with the pattern of labeling. providing a layline material (10; 10a) including a carrier film and a plurality of ink regions (18; 18a, 16; 68; 78, 80) applied to an ink side of the carrier film; applying a laser to laser-treat the ink side of the carrier film material to remove a first portion of ink from the ink regions of the carrier film to form a pattern of labeling (13; 13a; 52; 66; 76); applying the laser treated layline material to an outer surface of the hose product with the ink side against the hose product; curing the hose product with the laser treated layline material; and removing the carrier film after curing, wherein a second portion (16; 68; 78, 80) of the ink regions of the laser treated layline material not removed by the laser treatment remains bonded to an outer layer (62; 72) of the hose product to provide contrast with the pattern of labeling.
Microencapsulated polyaddition catalyst comprising a capsule core, containing polyaddition catalyst, and an acrylic copolymer capsule shell, wherein the acrylic copolymer comprises copolymerized units of an intermolecular anhydride of an ethylenically unsaturated C 3 -C 12 carboxylic acid, and the polyaddition catalyst is selected from acyclic tertiary amines, alicyclic tertiary amines, N-alkylimidazoles, phosphines and organic metal salts.
A process for producing a compound of Formula (I): wherein R 1 is selected from the group consisting of hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 1 -C 3 alkoxyC 1- C 3 alkyl-, C 1 -C 3 alkoxyC 2 -C 3 alkoxyC 1- C 3 alkyl-, aryl and a 5 or 6-membered heteroaryl, wherein the heteroaryl contains one to three heteroatoms each independently selected from the group consisting of oxygen, nitrogen and sulphur, and wherein the aryl and heteroaryl component may be optionally substituted; R 2 is C 1 -C 6 alkyl or C 3 -C 6 cycloalkyl; A 1 is selected from the group consisting of O, C(O) and (CR 7 R 8 ); and R 4 , R 6 , R 7 and R 8 are each independently selected from the group consisting of hydrogen and C 1 -C 4 alkyl; R 3 and R 5 are each independently selected from the group consisting of hydrogen and C 1 -C 4 alkyl or together may form a C 1 -C 3 alkylene chain; the process comprising reacting a compound of Formula(II) wherein X is a halogen; with a compound of Formula (III) wherein A 1 and R 3 , R 4 , R 5 and R 6 are as defined with regard to Formula (I) above; in a reaction medium comprising: (i) a palladium catalyst; (ii) a suitable phosphine ligand or phosphine ligand salt; (iii) a suitable base; and (iv) carbon monoxide; to give a compound of Formula (I). R 1 is selected from the group consisting of hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 1 -C 3 alkoxyC 1- C 3 alkyl-, C 1 -C 3 alkoxyC 2 -C 3 alkoxyC 1- C 3 alkyl-, aryl and a 5 or 6-membered heteroaryl, wherein the heteroaryl contains one to three heteroatoms each independently selected from the group consisting of oxygen, nitrogen and sulphur, and wherein the aryl and heteroaryl component may be optionally substituted; R 2 is C 1 -C 6 alkyl or C 3 -C 6 cycloalkyl; A 1 is selected from the group consisting of O, C(O) and (CR 7 R 8 ); and R 4 , R 6 , R 7 and R 8 are each independently selected from the group consisting of hydrogen and C 1 -C 4 alkyl; R 3 and R 5 are each independently selected from the group consisting of hydrogen and C 1 -C 4 alkyl or together may form a C 1 -C 3 alkylene chain; the process comprising reacting a compound of Formula(II) wherein X is a halogen; with a compound of Formula (III) wherein A 1 and R 3 , R 4 , R 5 and R 6 are as defined with regard to Formula (I) above; in a reaction medium comprising: (i) a palladium catalyst; (ii) a suitable phosphine ligand or phosphine ligand salt; (iii) a suitable base; and (iv) carbon monoxide; (i) a palladium catalyst; (ii) a suitable phosphine ligand or phosphine ligand salt; (iii) a suitable base; and (iv) carbon monoxide; to give a compound of Formula (I).
A method for the impact hardening of transition radii of a crankshaft , in particular of transition radii between connecting-rod bearing journals and crank webs and/or transition radii between main bearing journals and the crank webs of the crankshaft , wherein the crankshaft is firstly rotated by means of a drive device along a direction of rotation into an impact position, characterized in that an arresting device is provided in order to arrest the crankshaft in the impact position, following which an impact force is introduced into at least one transition radius by means of at least one impact tool .
An elevator belt monitoring apparatus, comprising (a) a housing for receiving an elevator belt; and (b) a plurality of belt-piercing contacts arranged in an array within said housing, each belt-piercing contact being configured to contact at least one cord within the belt, each belt piercing contact having a blade configuration including top, side and bottom edges wherein said belt-piercing contact bottom edge includes at least one projection , characterized in that said belt-piercing contact side edges have a sawtooth configuration. (a) a housing for receiving an elevator belt; and (b) a plurality of belt-piercing contacts arranged in an array within said housing, each belt-piercing contact being configured to contact at least one cord within the belt, each belt piercing contact having a blade configuration including top, side and bottom edges wherein said belt-piercing contact bottom edge includes at least one projection , characterized in that said belt-piercing contact side edges have a sawtooth configuration.
A gas turbine engine assembly , comprising: a cold section and a hot section , the cold section comprising a portion of the assembly fore of a combustion chamber , the cold section including a low pressure compressor and a high pressure compressor , the combustion chamber for igniting a fuel and air mixture that generates a core stream flow, the hot section including the combustion chamber and a portion of the assembly aft of the combustion chamber , a hot section cowling for directing the core stream flow through the gas turbine engine assembly , the hot section cowling comprising an inside surface that contains the core stream flow and an outside surface opposite the inside surface ; the hot section cowling extending between an aft or exhaust end of the combustion chamber to an exhaust end of the hot section cowling ; a plurality of thermoelectric generator assemblies thermally attached to the outside surface of the hot section cowling , each thermoelectric generator assembly comprising a multiplicity of thermoelectric generator devices that generate an electric current based on a temperature differential across each of the multiplicity of thermoelectric generator devices , wherein thermoelectric generator devices comprising different materials are used in different heat zones along the hot section cowling , and a fan nozzle surrounding at least a portion of the hot section cowling to direct a fan stream flow, wherein the thermoelectric generator assemblies are exposed to the fan stream flow. a cold section and a hot section , the cold section comprising a portion of the assembly fore of a combustion chamber , the cold section including a low pressure compressor and a high pressure compressor , the combustion chamber for igniting a fuel and air mixture that generates a core stream flow, the hot section including the combustion chamber and a portion of the assembly aft of the combustion chamber , a hot section cowling for directing the core stream flow through the gas turbine engine assembly , the hot section cowling comprising an inside surface that contains the core stream flow and an outside surface opposite the inside surface ; the hot section cowling extending between an aft or exhaust end of the combustion chamber to an exhaust end of the hot section cowling ; a plurality of thermoelectric generator assemblies thermally attached to the outside surface of the hot section cowling , each thermoelectric generator assembly comprising a multiplicity of thermoelectric generator devices that generate an electric current based on a temperature differential across each of the multiplicity of thermoelectric generator devices , wherein thermoelectric generator devices comprising different materials are used in different heat zones along the hot section cowling , and a fan nozzle surrounding at least a portion of the hot section cowling to direct a fan stream flow, wherein the thermoelectric generator assemblies are exposed to the fan stream flow.
Attachment for a device for generating an airflow, preferably a warm airflow, or for dispensing a fluid, which attachment is adapted to be introduced at least in sections into an external ear canal of a human or animal ear, wherein the attachment comprises - a connecting piece for connection to the device , and - a tongue-like guide vane , projecting from the connecting piece , for guiding air or fluid flowing out of the device , having a guide vane base , and wherein said guide vane is arranged upstream of the connecting peace , and wherein the tongue-like guide vane has two guide vane cheeks projecting from the guide vane base , namely a first guide vane cheek and a second guide vane cheek , wherein guide vane base and guide vane cheeks form a guide channel or part of a guide channel for the air flowing out of the device for generating an airflow, and wherein the first guide vane cheek projects from a first longitudinal edge of the guide vane base and the second guide vane cheek projects from a second longitudinal edge of the guide vane base opposite the first longitudinal edge. - a connecting piece for connection to the device , and - a tongue-like guide vane , projecting from the connecting piece , for guiding air or fluid flowing out of the device , having a guide vane base ,
An anti-skid chain for tyres , in particular for bogie axles, wherein the anti-skid chain has two laterally stable guide chains which in the mounted state are arranged to the side of the treads of the tyres , wherein the anti-skid chain has a flexible tread mesh which extends between the two guide chains , and wherein at least one guide chain has chain links interconnected in the peripheral direction (U) in the manner of an articulation by hinge pins and at least one rotation blocking means by which a maximum angle of articulation between two interconnected chain links is set, wherein the angle of articulation between two interconnected chain links is the angle which the two interconnected chain links enclose with each other, and is ascertained as the angle between the longitudinal axes of the chain links , characterised in that part of the rotation blocking means is located on at least one hinge pin .
A method for producing a laminate board , comprising the step of producing an interim sheet , the method comprising the steps of: a) providing at least a first sheet material impregnated with a first thermosetting resin, and a second sheet material impregnated with a second thermosetting resin; b) pressing the first and second sheet materials together, at a temperature of between 60°C and 135°C, for between 40 and 130 minutes, such that the first and second thermosetting resins become liquid, and pressing with a first sufficient pressure such that the first and second sheet materials fuse to form an interim sheet without fully curing the first and second thermosetting resins such that the first and second thermosetting resins can flow again when heated; c) forming a stack comprising the following layers: - a substrate board ; and, - the interim sheet of step b); and, d) pressing the stack together, at a temperature of between 170 and 230°C, for between 10 and 45 seconds, such that the first and second thermosetting resins flow again, and pressing with a second sufficient pressure such that the layers bond together to form a laminate board . a) providing at least a first sheet material impregnated with a first thermosetting resin, and a second sheet material impregnated with a second thermosetting resin; b) pressing the first and second sheet materials together, at a temperature of between 60°C and 135°C, for between 40 and 130 minutes, such that the first and second thermosetting resins become liquid, and pressing with a first sufficient pressure such that the first and second sheet materials fuse to form an interim sheet without fully curing the first and second thermosetting resins such that the first and second thermosetting resins can flow again when heated; c) forming a stack comprising the following layers: - a substrate board ; and, - the interim sheet of step b); and, - a substrate board ; and, - the interim sheet of step b); and, d) pressing the stack together, at a temperature of between 170 and 230°C, for between 10 and 45 seconds, such that the first and second thermosetting resins flow again, and pressing with a second sufficient pressure such that the layers bond together to form a laminate board .
A vehicular headlamp comprising: a projection lens having an optical axis extending in a front-back direction; a light source disposed behind a rear side focal point of the projection lens; a reflector configured to reflect direct light from the light source toward the projection lens; a shade disposed between the projection lens and the light source, and configured to partially block light reflected from the reflector and to form a cut-off line of a low-beam light distribution pattern; a first reflective surface provided in front of the reflector, and configured to partially reflect direct light from the light source downward to the front of the shade; and a second reflective surface provided in front of the shade and lower than the rear side focal point of the projection lens, and configured to reflect the light reflected from the first reflective surface toward the projection lens, wherein the first reflective surface has a front side first reflective surface and a rear side first reflective surface provided behind the front side first reflective surface, characterized in that the reflected light which is incident on the second reflective surface from the front side first reflective surface and reflected by the second reflective surface is caused to irradiate in front of the headlamp so as to illuminate above the reflected light which is incident on the second reflective surface from the rear side first reflective surface and reflected by the second reflective surface . a projection lens having an optical axis extending in a front-back direction; a light source disposed behind a rear side focal point of the projection lens; a reflector configured to reflect direct light from the light source toward the projection lens; a shade disposed between the projection lens and the light source, and configured to partially block light reflected from the reflector and to form a cut-off line of a low-beam light distribution pattern; a first reflective surface provided in front of the reflector, and configured to partially reflect direct light from the light source downward to the front of the shade; and a second reflective surface provided in front of the shade and lower than the rear side focal point of the projection lens, and configured to reflect the light reflected from the first reflective surface toward the projection lens, wherein the first reflective surface has a front side first reflective surface and a rear side first reflective surface provided behind the front side first reflective surface, characterized in that the reflected light which is incident on the second reflective surface from the front side first reflective surface and reflected by the second reflective surface is caused to irradiate in front of the headlamp so as to illuminate above the reflected light which is incident on the second reflective surface from the rear side first reflective surface and reflected by the second reflective surface .
A power distribution system comprising: a first distribution section configured to receive power from at least one power source, wherein a first rectifier unit of the first distribution section is configured to adjust a characteristic of the received power and is coupled to a first power bus of the first distribution section; a second distribution section that is separate from the first distribution section and that is configured to receive power from at least one power source, wherein a second rectifier unit of the second distribution section is configured to adjust a characteristic of the received power and is coupled to a second power bus of the second distribution section; wherein the first and second power buses are respective first and second ring buses; and a first swing rectifier connected to the first distribution section and connected to the second distribution section via the first and second ring buses respectively, wherein each of the first and second ring buses comprises a plurality of sectors, and wherein each sector is coupled to receive a power signal from a respective additional rectifier unit of the respective distribution section, wherein the first swing rectifier is configured to provide power to the first power bus and to provide power to the second power bus, wherein the first swing rectifier is further configured to dynamically adjust the power capacity of the first distribution section that is available to one or more loads, and dynamically adjust the power capacity of the second distribution section that is available to one or more loads. a first distribution section configured to receive power from at least one power source, wherein a first rectifier unit of the first distribution section is configured to adjust a characteristic of the received power and is coupled to a first power bus of the first distribution section; a second distribution section that is separate from the first distribution section and that is configured to receive power from at least one power source, wherein a second rectifier unit of the second distribution section is configured to adjust a characteristic of the received power and is coupled to a second power bus of the second distribution section; wherein the first and second power buses are respective first and second ring buses; and a first swing rectifier connected to the first distribution section and connected to the second distribution section via the first and second ring buses respectively, wherein each of the first and second ring buses comprises a plurality of sectors, and wherein each sector is coupled to receive a power signal from a respective additional rectifier unit of the respective distribution section, wherein the first swing rectifier is configured to provide power to the first power bus and to provide power to the second power bus, wherein the first swing rectifier is further configured to dynamically adjust the power capacity of the first distribution section that is available to one or more loads, and dynamically adjust the power capacity of the second distribution section that is available to one or more loads.
Assembly (2; 102 ; 202) of at least two metal sheet elements (4, 4'; 104, 104' ; 204, 204'), each comprising one edge (6, 6'; 106, 106'; 206, 206'), the said edges being superposed to form a junction sheet (8; 108 ; 208) of the said elements, said felt comprising a free end (14; 114; 214), and said edges are assembled by: - welding points (10; 110; 210) distributed along the foliage following a first axis (L1); and - at least one adhesive band (12; 112; 212) in the foliage extending along said foliage following a second axis (L2); characterized in that the second axis (L2) is offset against the first axis (L1) in a direction opposite the free end of the foliage. - welding points (10; 110; 210) distributed along the foliage following a first axis (L1); and - at least one adhesive band (12; 112; 212) in the foliage extending along said foliage following a second axis (L2); characterized in that the second axis (L2) is offset against the first axis (L1) in a direction opposite the free end of the foliage.