mhurhangee/ep-ind-claims huggingface dataset:
Method for hard fine machining of the toothing of a gear or of a gear-like profile of a workpiece, wherein the gear or the workpiece has an axis of rotation (a), wherein at the method the toothing of the gear or the gear-like profile of the workpiece is machined with a hard fine machining tool, wherein the hard fine machining tool has an axis of rotation (b) and rotates around the same during hard fine machining, characterized in that the method comprises the steps: a) Providing of a hard fine machining tool which comprises at least two axially adjacent machining zones (4, 5), wherein a first machining zone is designed for the grinding of the toothing of the gear or of the gear-like profile of the workpiece and wherein a second machining zone is designed for the fine grinding and/or polishing of the toothing or of the gear-like profile, wherein the profile of the hard fine machining tool is identical in the first and in the second machining zone (4, 5); b) Grinding of the toothing of the gear or of the gear-like profile of the workpiece with the first machining zone of the hard fine machining tool, wherein between the axis of rotation (a) of the gear or of the workpiece and the axis of rotation (b) of the hard fine machining tool a first pivoting angle (β 1) is existent; c) Fine grinding and/or polishing of the toothing of the gear or of the gear-like profile of the workpiece with the second machining zone of the hard fine machining tool, wherein between the axis of rotation (a) of the gear or of the workpiece and the axis of rotation (b) of the hard fine machining tool a second pivoting angle (β 2) is existent, which is different from the first pivoting angle (β 1). a) Providing of a hard fine machining tool which comprises at least two axially adjacent machining zones (4, 5), wherein a first machining zone is designed for the grinding of the toothing of the gear or of the gear-like profile of the workpiece and wherein a second machining zone is designed for the fine grinding and/or polishing of the toothing or of the gear-like profile, wherein the profile of the hard fine machining tool is identical in the first and in the second machining zone (4, 5); b) Grinding of the toothing of the gear or of the gear-like profile of the workpiece with the first machining zone of the hard fine machining tool, wherein between the axis of rotation (a) of the gear or of the workpiece and the axis of rotation (b) of the hard fine machining tool a first pivoting angle (β 1) is existent; c) Fine grinding and/or polishing of the toothing of the gear or of the gear-like profile of the workpiece with the second machining zone of the hard fine machining tool, wherein between the axis of rotation (a) of the gear or of the workpiece and the axis of rotation (b) of the hard fine machining tool a second pivoting angle (β 2) is existent, which is different from the first pivoting angle (β 1).
Lithium complex hybrid grease, containing 60 to 15 % by weight of an ester or of an ester mixture, selected from the group consisting of trimellitic acid esters, which as an alkoxy group comprise linear or branched alkyl groups, which contain 6 to 18 carbon atoms, preferably 8 to 14 carbon atoms, wherein the alkoxy groups can be the same or different, pyromellitic acid esters, hydrogenated or unhydrogenated dimer acids, estolides, 0.5 to 20 % by weight of non-hydrogenated, hydrogenated, or fully hydrogenated polyisobutylene or mixtures thereof, 1 to 18 % by weight of lithium complex soaps, and 15 to 40 % by weight of perfluoropolyether (PFPE) 60 to 15 % by weight of an ester or of an ester mixture, selected from the group consisting of trimellitic acid esters, which as an alkoxy group comprise linear or branched alkyl groups, which contain 6 to 18 carbon atoms, preferably 8 to 14 carbon atoms, wherein the alkoxy groups can be the same or different, pyromellitic acid esters, hydrogenated or unhydrogenated dimer acids, estolides, 0.5 to 20 % by weight of non-hydrogenated, hydrogenated, or fully hydrogenated polyisobutylene or mixtures thereof, 1 to 18 % by weight of lithium complex soaps, and 15 to 40 % by weight of perfluoropolyether (PFPE)
A method of identifying a first target nucleic acid comprising: providing a sample comprising the first target nucleic acid and potentially comprising a second target nucleic acid; contacting the sample with a first set of paired oligonucleotides with complementarity to the first target nucleic acid, the first set of paired oligonucleotides comprising a first ratio of (a) first competitive oligonucleotides to (b) first signal oligonucleotides comprising a first signal tag, wherein the first competitive oligonucleotides compete with the first signal oligonucleotides for binding to the first target nucleic acid; contacting the sample with a second set of paired oligonucleotides with complementarity to the second target nucleic acid, the second set of paired oligonucleotides comprising a second ratio of (a) second competitive oligonucleotides to (b) second signal oligonucleotides comprising a second signal tag, wherein the second competitive oligonucleotides compete with the second signal oligonucleotides for binding to the second target nucleic acid, wherein the first and second signal tags are the same signal tag; amplifying the first target nucleic acid and the second nucleic acid, if present, with the polymerase chain reaction, thereby degrading the first signal oligonucleotide and permitting generation of a first signal; generating the first signal; measuring an intensity level of the first signal, wherein the intensity level is correlated to the first ratio; and identifying the first target nucleic acid, based on the intensity level of the first signal. providing a sample comprising the first target nucleic acid and potentially comprising a second target nucleic acid; contacting the sample with a first set of paired oligonucleotides with complementarity to the first target nucleic acid, the first set of paired oligonucleotides comprising a first ratio of (a) first competitive oligonucleotides to (b) first signal oligonucleotides comprising a first signal tag, wherein the first competitive oligonucleotides compete with the first signal oligonucleotides for binding to the first target nucleic acid; contacting the sample with a second set of paired oligonucleotides with complementarity to the second target nucleic acid, the second set of paired oligonucleotides comprising a second ratio of (a) second competitive oligonucleotides to (b) second signal oligonucleotides comprising a second signal tag, wherein the second competitive oligonucleotides compete with the second signal oligonucleotides for binding to the second target nucleic acid, wherein the first and second signal tags are the same signal tag; amplifying the first target nucleic acid and the second nucleic acid, if present, with the polymerase chain reaction, thereby degrading the first signal oligonucleotide and permitting generation of a first signal; generating the first signal; measuring an intensity level of the first signal, wherein the intensity level is correlated to the first ratio; and identifying the first target nucleic acid, based on the intensity level of the first signal.
A method for determining a storage location of a table, comprising: receiving, by a forwarding device, M pieces of description information sent by a controller, wherein the M pieces of description information are in a one-to-one correspondence with M forwarding services, each piece of description information in the M pieces of description information comprises preset performance of a corresponding forwarding service and an identifier of a table that needs to be searched to execute the corresponding forwarding service, and N tables need to be searched to execute the M forwarding services; a set comprising preset performance of the M forwarding services comprises Q elements, the Q elements are a first element to a Q th element, and each element in the Q elements indicates one type of preset performance; and an r th element in the Q elements indicates that the preset performance is a C r ×line rate, M, N, Q, and r are positive integers, 2≤N, Q≤M, r≤Q, and 0≤C r ≤1; generating, by the forwarding device, Q pieces of simultaneous access information according to the M pieces of description information, wherein an r th piece of simultaneous access information in the Q pieces of simultaneous access information indicates whether every two tables in the N tables need to be accessed by a same forwarding service whose preset performance is the C r ×line rate; determining, by the forwarding device according to the Q pieces of simultaneous access information, that the N tables are to be stored in at least one memory of the forwarding device; and storing, by the forwarding device, the N tables in the at least one memory. receiving, by a forwarding device, M pieces of description information sent by a controller, wherein the M pieces of description information are in a one-to-one correspondence with M forwarding services, each piece of description information in the M pieces of description information comprises preset performance of a corresponding forwarding service and an identifier of a table that needs to be searched to execute the corresponding forwarding service, and N tables need to be searched to execute the M forwarding services; a set comprising preset performance of the M forwarding services comprises Q elements, the Q elements are a first element to a Q th element, and each element in the Q elements indicates one type of preset performance; and an r th element in the Q elements indicates that the preset performance is a C r ×line rate, M, N, Q, and r are positive integers, 2≤N, Q≤M, r≤Q, and 0≤C r ≤1; generating, by the forwarding device, Q pieces of simultaneous access information according to the M pieces of description information, wherein an r th piece of simultaneous access information in the Q pieces of simultaneous access information indicates whether every two tables in the N tables need to be accessed by a same forwarding service whose preset performance is the C r ×line rate; determining, by the forwarding device according to the Q pieces of simultaneous access information, that the N tables are to be stored in at least one memory of the forwarding device; and storing, by the forwarding device, the N tables in the at least one memory.
A method for producing tetrafluoromethane, the method comprising: introducing fluorine gas to a raw material liquid containing a reaction inducer and a fluorinated hydrocarbon represented by chemical formula C p H q Cl r F s (in the chemical formula, p is an integer of 3 or more and 18 or less, q is an integer of 0 or more and 3 or less, r is an integer of 0 or more and 9 or less, and s is an integer of 5 or more and 30 or less) and having no carbon-carbon unsaturated bond, wherein the reaction inducer is a hydrocarbon polymer solid at normal temperature and pressure and is reacted with the fluorine gas to induce a reaction of forming tetrafluoromethane from the fluorinated hydrocarbon and the fluorine gas. introducing fluorine gas to a raw material liquid containing a reaction inducer and a fluorinated hydrocarbon represented by chemical formula C p H q Cl r F s (in the chemical formula, p is an integer of 3 or more and 18 or less, q is an integer of 0 or more and 3 or less, r is an integer of 0 or more and 9 or less, and s is an integer of 5 or more and 30 or less) and having no carbon-carbon unsaturated bond, wherein the reaction inducer is a hydrocarbon polymer solid at normal temperature and pressure and is reacted with the fluorine gas to induce a reaction of forming tetrafluoromethane from the fluorinated hydrocarbon and the fluorine gas.
An electric coil structure, comprising: a magnetic core; a coil substrate comprising a conductive material embedded in an insulating material, the coil substrate having a first portion and a second portion, the first portion of the coil substrate at least partially wrapped around the magnetic core; and an alignment structure, the alignment structure configured to facilitate attachment of the first portion to the second portion to define a coil about the magnetic core, characterised in that the alignment structure comprises a redistribution substrate disposed between the first portion and the second portion. a magnetic core; a coil substrate comprising a conductive material embedded in an insulating material, the coil substrate having a first portion and a second portion, the first portion of the coil substrate at least partially wrapped around the magnetic core; and an alignment structure, the alignment structure configured to facilitate attachment of the first portion to the second portion to define a coil about the magnetic core, characterised in that the alignment structure comprises a redistribution substrate disposed between the first portion and the second portion.
A field emission lighting arrangement, comprising: - a bulb shaped evacuated envelope, comprising: - a field emission cathode arranged along the optical axis of the field emission lighting arrangement, and - an anode structure arranged along an inside of the evacuated envelope, the anode structure comprising a transparent electrically conducting layer and an electron to light conversion layer, and - a base structure provided at a bottom end of the evacuated envelope, the base structure comprising a power supply electrically integrated within the base structure and connected to the anode structure and the cathode, wherein the power supply is configured to apply a voltage such that electrons are emitted from the cathode to the anode structure, wherein the field emission cathode has an essentially ellipsoidal form factor that is selected based on a predetermined shape of the evacuated envelope and is arranged in a lower part of the evacuated envelope towards the base structure, wherein a distance between the surface of the cathode and the anode structure is largest along the optical axis and the shortest distance between a surface of the cathode and the anode structure decreases with an increasing central angle from the optical axis. - a bulb shaped evacuated envelope, comprising: - a field emission cathode arranged along the optical axis of the field emission lighting arrangement, and - an anode structure arranged along an inside of the evacuated envelope, the anode structure comprising a transparent electrically conducting layer and an electron to light conversion layer, and - a field emission cathode arranged along the optical axis of the field emission lighting arrangement, and - an anode structure arranged along an inside of the evacuated envelope, the anode structure comprising a transparent electrically conducting layer and an electron to light conversion layer, and - a base structure provided at a bottom end of the evacuated envelope, the base structure comprising a power supply electrically integrated within the base structure and connected to the anode structure and the cathode, wherein the power supply is configured to apply a voltage such that electrons are emitted from the cathode to the anode structure, wherein the field emission cathode has an essentially ellipsoidal form factor that is selected based on a predetermined shape of the evacuated envelope and is arranged in a lower part of the evacuated envelope towards the base structure, wherein a distance between the surface of the cathode and the anode structure is largest along the optical axis and the shortest distance between a surface of the cathode and the anode structure decreases with an increasing central angle from the optical axis.
Radiating module for a heating apparatus able to heat rooms, comprising a first conductor plate and a second conductor plate, associated with each other so as to define a central portion inside which a thermo vector fluid is able to flow, and heating means able to heat said thermo vector fluid, wherein said central portion comprises a single channel, substantially coaxial with and in any case comprising the longitudinal axis of said radiating module, and in that said single channel has a development such as to define a first or lower segment and a second or upper segment, wherein said first or lower segment has a greater width and/or a greater thickness than said second or upper segment and is disposed near said heating means, said first or lower segment defining a tank in which a large quantity of thermo vector fluid accumulates and is heated directly by said heating means, and wherein said first conductor plate is shaped so as to define in its central part a first groove with a substantial trapezoid shape in correspondence with said first or lower segment, and a substantially curvilinear shape in correspondence with said second or upper segment and, at one end of its perimeter, a bend substantially circular in shape, or curled, which defines a perimeter channel, and wherein said second conductor plate is shaped so as to define, in its central part, a second groove having the same shape, sizes and development of said first groove and lateral ends substantially bent perpendicularly to a plane on which said first conductor plate lies.
Valve timing control device for an internal combustion engine, said valve timing control device comprising: a rotor (10, 210) comprising a plurality of vanes (14, 24, 25), a stator (40, 240) engaged with the rotor, said stator (40, 240) comprising a plurality of webs, wherein an advancement chamber and a retard chamber are provided between each of the webs and vanes (14, 24, 25), a lock pin which is arranged in a pressure medium control valve chamber and locks the rotor (10, 210) relative to the stator (40, 240) at a mid-lock position, an oil control valve (32, 232) in fluid communication with the rotor (10, 210), which oil control valve furthermore comprises, on its outer surface, a centering slot in fluid communication with the pressure medium control valve chamber, characterized in that the rotor (10, 210) has, on its outer surface, at least one depression as a directional supply port for the supply of oil to the advancement chamber or the retard chamber in a manner dependent on the position of the rotor (10, 210) relative to the stator (40, 240), which at least one depression is in fluid communication with the oil control valve (32, 232) via a fluid passage, wherein either the advancement chamber or the retard chamber vents oil into the oil control valve (32, 232) through the centering slot, during which time the oil control valve (32, 232) supplies oil to the other chamber (60, 62) through the directional supply port, thereby locating the rotor (10, 210) to its mid-lock position so the lock pin can lock the rotor (10, 210) relative to the stator (40, 240). a rotor (10, 210) comprising a plurality of vanes (14, 24, 25), a stator (40, 240) engaged with the rotor, said stator (40, 240) comprising a plurality of webs, wherein an advancement chamber and a retard chamber are provided between each of the webs and vanes (14, 24, 25), a lock pin which is arranged in a pressure medium control valve chamber and locks the rotor (10, 210) relative to the stator (40, 240) at a mid-lock position, an oil control valve (32, 232) in fluid communication with the rotor (10, 210), which oil control valve furthermore comprises, on its outer surface, a centering slot in fluid communication with the pressure medium control valve chamber, characterized in that the rotor (10, 210) has, on its outer surface, at least one depression as a directional supply port for the supply of oil to the advancement chamber or the retard chamber in a manner dependent on the position of the rotor (10, 210) relative to the stator (40, 240), which at least one depression is in fluid communication with the oil control valve (32, 232) via a fluid passage, wherein either the advancement chamber or the retard chamber vents oil into the oil control valve (32, 232) through the centering slot, during which time the oil control valve (32, 232) supplies oil to the other chamber (60, 62) through the directional supply port, thereby locating the rotor (10, 210) to its mid-lock position so the lock pin can lock the rotor (10, 210) relative to the stator (40, 240).
A reflection-type optical control element comprising: an optical control layer whose state is reversibly changed between a transparent state caused by hydrogenation and a reflective state caused by dehydrogenation; a catalyst layer that accelerates the hydrogenation and the dehydrogenation in the optical control layer; and an oxidation inhibition part; characterised in that the oxidation inhibition part is arranged between the optical control layer and the catalyst layer and inhibits oxidation of the optical control layer that is caused by oxygen that permeates through the catalyst layer. an optical control layer whose state is reversibly changed between a transparent state caused by hydrogenation and a reflective state caused by dehydrogenation; a catalyst layer that accelerates the hydrogenation and the dehydrogenation in the optical control layer; and an oxidation inhibition part; characterised in that the oxidation inhibition part is arranged between the optical control layer and the catalyst layer and inhibits oxidation of the optical control layer that is caused by oxygen that permeates through the catalyst layer.
A Policy and Charging Rules Function node, PCRF node, for a communications system, the PCRF node being equipped with an interface (Gx) towards a Policy and Charging Enforcement Function node, PCEF node, in the communications system, the PCRF node being arranged to use said interface (Gx) to provide the PCEF node with new or updated Policy and Charging Control, PCC, rules for a User Equipment in the communications system, the PCRF node being characterized in that it is also equipped with an interface (Sy) towards an Online Charging System node, OCS node, in the communications system, and in that the PCRF node is arranged to: - As a result of a trigger signal which is internal or external to the PCRF node, request a credit indication for new or updated PCC rules for the User Equipment from the OCS node over the interface (Sy) to the OCS node, - As a result of said request, receive a credit indication for the new or updated PCC rules for the User Equipment from the OCS node over the interface (Sy) to the OCS node, - To provide said credit indication to the PCEF node over the interface (Gx) to the PCEF node. - As a result of a trigger signal which is internal or external to the PCRF node, request a credit indication for new or updated PCC rules for the User Equipment from the OCS node over the interface (Sy) to the OCS node, - As a result of said request, receive a credit indication for the new or updated PCC rules for the User Equipment from the OCS node over the interface (Sy) to the OCS node, - To provide said credit indication to the PCEF node over the interface (Gx) to the PCEF node.