mhurhangee/ep-ind-claims huggingface dataset:
A long range coil and power source for a magnetic field generator comprising: a driver circuit having an input electrically coupled to a controller, said driver circuit generating an electric current in response to electrical signals from the controller; and a coil comprising a core and a conductive wire wound about said core characterized in that said conductive wire is wound about said core in a basketweave pattern, wherein a first end and a second end of the conductive wire are electrically coupled to an output of said driver circuit for receiving said electric current to create a magnetic field; a first end cap formed from a non-conductive material covering a first end of the coil and a second end cap formed from a non-conductive material covering a second end of the coil; wherein each end cap (87a, 87b) is provided with a plurality of anchor points such that the conductive wire is wound about the anchor points alternating between anchor points on the first end cap and anchor points on the second end cap such that the alternating anchor points are radially offset from one another and the wire is wound about the core in a single direction. a driver circuit having an input electrically coupled to a controller, said driver circuit generating an electric current in response to electrical signals from the controller; and a coil comprising a core and a conductive wire wound about said core characterized in that said conductive wire is wound about said core in a basketweave pattern, wherein a first end and a second end of the conductive wire are electrically coupled to an output of said driver circuit for receiving said electric current to create a magnetic field; a first end cap formed from a non-conductive material covering a first end of the coil and a second end cap formed from a non-conductive material covering a second end of the coil; wherein each end cap (87a, 87b) is provided with a plurality of anchor points such that the conductive wire is wound about the anchor points alternating between anchor points on the first end cap and anchor points on the second end cap such that the alternating anchor points are radially offset from one another and the wire is wound about the core in a single direction.
A near field communication method, comprising: Acquiring, by a second device, a near field communication identification NFCID of a first device, wherein the NFCID of the first device carries first device type DT information, and the first DT information is used to indicate a device type such as a cash register or a fax supported by the first device; and extracting, by the second device, the first DT information from the NFCID of the first device, wherein the acquiring, by the second device, a near field communication identification NFCID of a first device comprises: sending, by the second device, a first request message, wherein the first request message carries second DT information, and the second DT information is used to indicate a device type to be searched for by the second device; and receiving, by the second device, the NFCID of the first device from the first device, when it is determined, by the first device, that the first DT information matches the second DT information. Acquiring, by a second device, a near field communication identification NFCID of a first device, wherein the NFCID of the first device carries first device type DT information, and the first DT information is used to indicate a device type such as a cash register or a fax supported by the first device; and extracting, by the second device, the first DT information from the NFCID of the first device, wherein the acquiring, by the second device, a near field communication identification NFCID of a first device comprises: sending, by the second device, a first request message, wherein the first request message carries second DT information, and the second DT information is used to indicate a device type to be searched for by the second device; and receiving, by the second device, the NFCID of the first device from the first device, when it is determined, by the first device, that the first DT information matches the second DT information. sending, by the second device, a first request message, wherein the first request message carries second DT information, and the second DT information is used to indicate a device type to be searched for by the second device; and receiving, by the second device, the NFCID of the first device from the first device, when it is determined, by the first device, that the first DT information matches the second DT information.
A ball end mill comprising, a plurality of end cutting edges being formed on a tip section of an end mill body that is rotated around an axis, the plurality of end cutting edges being formed having, as its rotational trajectory around the axis, a hemisphere shape that is centered on the axis, the plurality of end cutting edges being formed in such a way as to extend from the inside of the point of the tip section at intervals in a circumferential direction to the outside of a rear end of the tip section; and a plurality of peripheral cutting edges that are continuous with outside ends of the end cutting edges and that extend to the rear end are formed at intervals in the circumferential direction on an outer circumferential portion of the end mill body; wherein a portion of the plurality of end cutting edges is formed into long end cutting edges that extend out from the vicinity of the axis at the tip section of the end mill body; and an angle α is larger than an angle θ, the angle α, on a cross-section perpendicular to the axis, is formed between a straight line that connects the axis to a peripheral cutting edge which is continuous with the long end cutting edge and a straight line that connects the axis to a peripheral cutting edge which is continuous with an end cutting edge which is positioned in forward of the long end cutting edge in the end mill rotation direction, and the angle θ, when viewed from the point in the axial direction, is formed between a tangent line at an inside end of the long end cutting edge and a tangent line at an inside end of the end cutting edge which is positioned in forward of the long end cutting edge in the end mill rotation direction; characterised in that: helix angles are defined relative to the axis by the end cutting edges that twist towards backward in the end mill rotational direction as they move towards the rear end of the end mill body, wherein a helix angle relative to the axis of the long end cutting edges is larger than a helix angle relative to the axis of the end cutting edges that are positioned in forward of the long end cutting edges in the end mill rotation direction. helix angles are defined relative to the axis by the end cutting edges that twist towards backward in the end mill rotational direction as they move towards the rear end of the end mill body, wherein a helix angle relative to the axis of the long end cutting edges is larger than a helix angle relative to the axis of the end cutting edges that are positioned in forward of the long end cutting edges in the end mill rotation direction.
An attachment (1, 101) for a fluid-operated percussion drill tool (2, 102), the drill tool having a backhead assembly (4, 104) for attachment to a drill rod, comprising: a shaft (3, 103) attachable to the backhead assembly, wherein the shaft comprises a central bore in fluid communication with a pressure bore of the drill rod; and a sleeve (5, 105) co-axially slidably mounted on the shaft, the sleeve comprising an outer shoulder (7, 107) at a rear end thereof; and at least one rearwardly-directed exhaust passage (6, 121, 123); characterised in that when pressurised air is supplied from the central bore of the shaft the sleeve is urged rearwards into a closed position in which air is prevented from exhausting through the exhaust passage; and when a restriction is encountered at the shoulder, the sleeve moves forward to an open position in which air is permitted to exhaust through the exhaust passage adjacent the restriction. a shaft (3, 103) attachable to the backhead assembly, wherein the shaft comprises a central bore in fluid communication with a pressure bore of the drill rod; and a sleeve (5, 105) co-axially slidably mounted on the shaft, the sleeve comprising an outer shoulder (7, 107) at a rear end thereof; and at least one rearwardly-directed exhaust passage (6, 121, 123); characterised in that when pressurised air is supplied from the central bore of the shaft the sleeve is urged rearwards into a closed position in which air is prevented from exhausting through the exhaust passage; and when a restriction is encountered at the shoulder, the sleeve moves forward to an open position in which air is permitted to exhaust through the exhaust passage adjacent the restriction.
A method of preparing an adhesive pellet, the method comprising the steps of: forming a first part comprising at least a first polymer and a second polymer, said first polymer of said first part is a di-functional polymer containing two functional groups reactive with isocyanate functional groups and said second polymer of said first part is a multi-functional polymer containing several functional groups reactive with isocyanate functional groups; forming a second part comprising isocyanate and fumed silica; introducing said first part into an extruder; heating said first part in said extruder; introducing said second part into said extruder; forming an extruded composition from said first and second parts; forming pellets from said extruded composition; and coating said pellets with a catalyst. forming a first part comprising at least a first polymer and a second polymer, said first polymer of said first part is a di-functional polymer containing two functional groups reactive with isocyanate functional groups and said second polymer of said first part is a multi-functional polymer containing several functional groups reactive with isocyanate functional groups; forming a second part comprising isocyanate and fumed silica; introducing said first part into an extruder; heating said first part in said extruder; introducing said second part into said extruder; forming an extruded composition from said first and second parts; forming pellets from said extruded composition; and coating said pellets with a catalyst.
A composition comprising: (a) a first solid support comprising (i) a covalently attached electroactive moiety comprising a transition metal complex comprising a self-immolative moiety and a peroxide sensitive moiety, wherein said EAM has a first E ∘ when said SIM is covalently attached to said EAM and a second E ∘ when said SIM is absent; (ii) an optional self-assembled monolayer; (b) a first binding ligand that binds selectively and equivalently to a protein and a glycated protein in direct proportion to the fraction of glycated protein in a test sample, wherein the first binding ligand is attached to a second solid support; (c) a second binding ligand that specifically binds to said glycated protein, said second binding ligand comprising a peroxide-generating system; and (d) an optional substrate for said peroxide-generating system. (a) a first solid support comprising (i) a covalently attached electroactive moiety comprising a transition metal complex comprising a self-immolative moiety and a peroxide sensitive moiety, wherein said EAM has a first E ∘ when said SIM is covalently attached to said EAM and a second E ∘ when said SIM is absent; (ii) an optional self-assembled monolayer; (i) a covalently attached electroactive moiety comprising a transition metal complex comprising a self-immolative moiety and a peroxide sensitive moiety, wherein said EAM has a first E ∘ when said SIM is covalently attached to said EAM and a second E ∘ when said SIM is absent; (ii) an optional self-assembled monolayer; (b) a first binding ligand that binds selectively and equivalently to a protein and a glycated protein in direct proportion to the fraction of glycated protein in a test sample, wherein the first binding ligand is attached to a second solid support; (c) a second binding ligand that specifically binds to said glycated protein, said second binding ligand comprising a peroxide-generating system; and (d) an optional substrate for said peroxide-generating system.
Runner of a Pelton turbine with a multiplicity of buckets which are arranged on a disk-like wheel and which consist in each case of a bucket root, which directly adjoins the wheel, and a bucket body, wherein the disk-like wheel with the bucket roots is formed in one piece from a forged material, and wherein separately produced bucket bodies consisting of three separate parts (1, 2a, 2b) per bucket are connected to the respectively associated bucket root by means of welding, characterized in that a first part comprises the entire part of the bucket body which extends in the radial direction across the bucket root, and two further parts (2a, 2b), which axially adjoin the bucket root, comprise the rest of the bucket body.
An electrical cable comprising: - an elongated electrically conductive element, - at least one fluorinated polymeric electrically insulating layer, surrounding said electrically conductive element, and - one or more polymeric semiconductor layers (3, 5), characterized in that: - the electrical cable is free of any layer containing polyimide between said electrically conductive layer and said fluorinated polymeric electrically insulating layer, - the total thickness of the set of fluorinated polymeric electrically insulating layers is at least 0.10 mm and at most 0.70 mm, - the polymeric semiconductor layer(s) (3, 5) comprise one or several electrically conductive charges, and have an electrical conductivity of between 1.10 -9 and 1.10 5 S.m -1 (25°C), and - the electrical cable comprises a polymeric semiconductor layer surrounding the fluorinated polymeric electrically insulating layer. - an elongated electrically conductive element, - at least one fluorinated polymeric electrically insulating layer, surrounding said electrically conductive element, and - one or more polymeric semiconductor layers (3, 5), - the electrical cable is free of any layer containing polyimide between said electrically conductive layer and said fluorinated polymeric electrically insulating layer, - the total thickness of the set of fluorinated polymeric electrically insulating layers is at least 0.10 mm and at most 0.70 mm, - the polymeric semiconductor layer(s) (3, 5) comprise one or several electrically conductive charges, and have an electrical conductivity of between 1.10 -9 and 1.10 5 S.m -1 (25°C), and - the electrical cable comprises a polymeric semiconductor layer surrounding the fluorinated polymeric electrically insulating layer.
A process for removing a thermal barrier ceramic coating from a cooling hole of a metallic turbine engine component comprising: directing an air jet at the cooling hole of the component, the jet containing non-abrasive particulate media and being emitted from a nozzle at a low pressure insufficient to damage a metallic surface of the cooling hole but sufficient to remove the thermal barrier ceramic coating, wherein the pressure of the air jet is from about 140,000 to 690,000 Pa (20 to 100 PSIG), and wherein the air jet is directed at the cooling hole toward a surface of the component opposing the surface having the thermal barrier coating. directing an air jet at the cooling hole of the component, the jet containing non-abrasive particulate media and being emitted from a nozzle at a low pressure insufficient to damage a metallic surface of the cooling hole but sufficient to remove the thermal barrier ceramic coating, wherein the pressure of the air jet is from about 140,000 to 690,000 Pa (20 to 100 PSIG), and wherein the air jet is directed at the cooling hole toward a surface of the component opposing the surface having the thermal barrier coating.
A delivery device for delivering an implantable leadless pacing device, the delivery device comprising: an outer tubular member including a lumen extending from a proximal end to a distal end thereof; an inner tubular member including a lumen extending from a proximal end to a distal end thereof, the inner tubular member slidably disposed within the lumen of the outer tubular member; a distal holding section extending distally of a distal end of the inner tubular member, the distal holding section defining a cavity therein for receiving an implantable leadless pacing device; and a handle assembly positioned adjacent the proximal end of the outer tubular member; wherein the handle assembly includes a first locking mechanism, the first locking mechanism having a locked configuration in which the inner tubular member is held in tension and the outer tubular member is held in compression. wherein the distal holding section includes a hub portion that applies a proximal force on the distal end of the outer tubular member thus placing the outer tubular member in compression, in the locked configuration. an outer tubular member including a lumen extending from a proximal end to a distal end thereof; an inner tubular member including a lumen extending from a proximal end to a distal end thereof, the inner tubular member slidably disposed within the lumen of the outer tubular member; a distal holding section extending distally of a distal end of the inner tubular member, the distal holding section defining a cavity therein for receiving an implantable leadless pacing device; and a handle assembly positioned adjacent the proximal end of the outer tubular member; wherein the handle assembly includes a first locking mechanism, the first locking mechanism having a locked configuration in which the inner tubular member is held in tension and the outer tubular member is held in compression. wherein the distal holding section includes a hub portion that applies a proximal force on the distal end of the outer tubular member thus placing the outer tubular member in compression, in the locked configuration.
An electric compressor in which a control device (2; 21) for controlling a motor provided inside a housing (42; 44; 66; 76) of the electric compressor is integrated with the housing (42; 44; 66; 76), wherein the control device (2; 21) comprises a substrate (43; 50; 63); a central processing unit mounted on a first surface of the substrate (43; 50; 63), wherein the control device further comprises a magnetism-resistant section (45; 55; 68) formed in a sheet shape by sandwiching a conductive layer (46; 70) having an electric conductivity and a thermal conductivity, with insulating layers (47, 48; 69), and configured to cover an entire second surface of the substrate (43; 50; 63) opposite to the first surface to protect the central processing unit from an electromagnetic wave noise, the substrate (43; 50; 63) is fixed to a bottom of the housing (42; 44; 66; 76) with the second surface facing the housing (42; 44; 66; 76), switching devices to which a large current flows and the central processing unit are mounted on the substrate (43; 50; 63) or the switching devices are fixed to the bottom below the substrate, and the magnetism-resistant section (45; 55; 68) includes a portion at which the conductive layer (46;70) is exposed, and is arranged such that the portion is in contact with any one of the housing (42; 44; 66; 76) of the electric compressor and a part (67; 73; 75) conducting heat to the housing (42; 44; 66; 76). the control device (2; 21) comprises a substrate (43; 50; 63); a central processing unit mounted on a first surface of the substrate (43; 50; 63), a substrate (43; 50; 63); a central processing unit mounted on a first surface of the substrate (43; 50; 63), wherein the control device further comprises a magnetism-resistant section (45; 55; 68) formed in a sheet shape by sandwiching a conductive layer (46; 70) having an electric conductivity and a thermal conductivity, with insulating layers (47, 48; 69), and configured to cover an entire second surface of the substrate (43; 50; 63) opposite to the first surface to protect the central processing unit from an electromagnetic wave noise, the substrate (43; 50; 63) is fixed to a bottom of the housing (42; 44; 66; 76) with the second surface facing the housing (42; 44; 66; 76), switching devices to which a large current flows and the central processing unit are mounted on the substrate (43; 50; 63) or the switching devices are fixed to the bottom below the substrate, and the magnetism-resistant section (45; 55; 68) includes a portion at which the conductive layer (46;70) is exposed, and is arranged such that the portion is in contact with any one of the housing (42; 44; 66; 76) of the electric compressor and a part (67; 73; 75) conducting heat to the housing (42; 44; 66; 76).
A process for producing doped nanoparticles, which comprises the following steps: a) provision of a composition comprising at least one hydrolysable metal compound, at least one compound having at least one hydroxyl group, a mineral acid comprising at least one nitrogen atom; b) hydrothermal treatment of the composition; c) isolation of the nanoparticles. a) provision of a composition comprising at least one hydrolysable metal compound, at least one compound having at least one hydroxyl group, a mineral acid comprising at least one nitrogen atom; b) hydrothermal treatment of the composition; c) isolation of the nanoparticles.
An amino acid-containing composition for use in enhancing recovery from muscle fatigue, comprising the following amino acids -, wherein the molar content ratios of the respective amino acids to the total content of said amino acids - fall within the following numerical ranges: leucine 35 - 66% isoleucine 5.0 - 15% valine 5.0 - 15% threonine 7.0 - 14% lysine 8.0 - 16% methionine 2.0 - 10% histidine 0.1 - 3.5% phenylalanine 2.5 - 8.0% tryptophan 0.1 - 2.0%. leucine 35 - 66% isoleucine 5.0 - 15% valine 5.0 - 15% threonine 7.0 - 14% lysine 8.0 - 16% methionine 2.0 - 10% histidine 0.1 - 3.5% phenylalanine 2.5 - 8.0% tryptophan 0.1 - 2.0%.