mhurhangee/patent-ind-claim-en huggingface dataset:
A lubrication monitoring arrangement configured to monitor a supply of lubricant in a lubrication system of a hand-held cutting tool , wherein the lubrication system comprises a tank and a conduit , wherein the conduit is configured to duct lubricant from the tank to a cutting unit of the cutting tool , characterised in that the arrangement comprises a heating element and a control unit , wherein the heating element is arranged to heat a portion (17', 17", 17′′′, 17ʺʺ) of the lubrication system , and wherein the control unit is configured to monitor the supply of lubricant in the lubrication system by monitoring the change in temperature of the portion (17', 17", 17′′′, 17ʺʺ) of the lubrication system . wherein the lubrication system comprises a tank and a conduit , wherein the conduit is configured to duct lubricant from the tank to a cutting unit of the cutting tool , characterised in that the arrangement comprises a heating element and a control unit , wherein the heating element is arranged to heat a portion (17', 17", 17′′′, 17ʺʺ) of the lubrication system , and wherein the control unit is configured to monitor the supply of lubricant in the lubrication system by monitoring the change in temperature of the portion (17', 17", 17′′′, 17ʺʺ) of the lubrication system .
A corrosion-resistant permanent magnet comprising a magnet body and a composite coating provided on and covering surfaces of the magnet body, the composite coating comprising, in the order recited, - a first metal oxide layer in physical contact with the magnet body, - a metal layer, - a second metal oxide layer, - a linker layer, wherein the linker forming the linker layer is a bifunctional compound, and - a layer formed from poly(2-chloro-p-xylylene). - a first metal oxide layer in physical contact with the magnet body, - a metal layer, - a second metal oxide layer, - a linker layer, wherein the linker forming the linker layer is a bifunctional compound, and - a layer formed from poly(2-chloro-p-xylylene).
A method of wireless communication, the method specifically adapted for: receiving a non-low latency transmission comprising a control region (305-a) and a data region (310-a) during a first transmission time interval, TTI, characterized by , receiving an indication of a low latency transmission , wherein the low latency transmission has a duration of a second TTI, wherein the low latency transmission is present in at least a portion of the data region (310-a, 415) of the first TTI, wherein the second TTI has a duration that is less than the duration of the first TTI, and wherein the indication is received subsequent to the low latency transmission ; and decoding the non-low latency transmission based at least in part on the indication . receiving a non-low latency transmission comprising a control region (305-a) and a data region (310-a) during a first transmission time interval, TTI, characterized by , receiving an indication of a low latency transmission , wherein the low latency transmission has a duration of a second TTI, wherein the low latency transmission is present in at least a portion of the data region (310-a, 415) of the first TTI, wherein the second TTI has a duration that is less than the duration of the first TTI, and wherein the indication is received subsequent to the low latency transmission ; and decoding the non-low latency transmission based at least in part on the indication .
A system to perform a seismic survey in a marine environment, comprising: a seismic data acquisition unit placed on a seabed in the marine environment, the seismic data acquisition unit including a first clock ; an extraction vehicle to establish an optical communications link with the seismic data acquisition unit , the extraction vehicle including a second clock and a data processing system to: syntonize, via the optical communications link, a frequency of the first clock of the seismic data acquisition unit to a frequency of the second clock ; and instruct the seismic data acquisition unit to enter a low power state subsequent to syntonization of the frequency of the first clock to the frequency of the second clock , the seismic data acquisition unit configured to exit the low power state and acquire seismic data in an operational state. a seismic data acquisition unit placed on a seabed in the marine environment, the seismic data acquisition unit including a first clock ; an extraction vehicle to establish an optical communications link with the seismic data acquisition unit , the extraction vehicle including a second clock and a data processing system to: syntonize, via the optical communications link, a frequency of the first clock of the seismic data acquisition unit to a frequency of the second clock ; and instruct the seismic data acquisition unit to enter a low power state subsequent to syntonization of the frequency of the first clock to the frequency of the second clock , the seismic data acquisition unit configured to exit the low power state and acquire seismic data in an operational state. syntonize, via the optical communications link, a frequency of the first clock of the seismic data acquisition unit to a frequency of the second clock ; and instruct the seismic data acquisition unit to enter a low power state subsequent to syntonization of the frequency of the first clock to the frequency of the second clock , the seismic data acquisition unit configured to exit the low power state and acquire seismic data in an operational state.
A polymer material containing an additive for a polymer, wherein the polymer is selected from the group of polyester, PA6, PA66, TPU and PPE, wherein the additive comprises: A: a dialkyl phosphinate, the dialkyl phosphinate having the following structural formula (I), wherein R 1 and R 2 are the same or different, which represent H, C1-C6-alkyl or C6-C18-aryl; M is Al; m is 3; B: a metal element of calcium wherein the mass content of the metal element of calcium in the total additive is 50 to 500 ppm which is determined according to the method of the description; and comprising 5 to 25 parts by weight of the additive for polymer and 50 to 75 parts by weight of the polymer or a mixture thereof. A: a dialkyl phosphinate, the dialkyl phosphinate having the following structural formula (I), wherein R 1 and R 2 are the same or different, which represent H, C1-C6-alkyl or C6-C18-aryl; M is Al; m is 3; wherein R 1 and R 2 are the same or different, which represent H, C1-C6-alkyl or C6-C18-aryl; M is Al; m is 3; B: a metal element of calcium wherein the mass content of the metal element of calcium in the total additive is 50 to 500 ppm which is determined according to the method of the description; and comprising 5 to 25 parts by weight of the additive for polymer and 50 to 75 parts by weight of the polymer or a mixture thereof.
Method implemented by computer for modelling a three-dimensional object, from two-dimensional images of this object, taken from different angles along at least two directions, the three-dimensional object being a pair of spectacles, characterised in that it includes steps of: - acquiring two-dimensional images of the pair of spectacles , possibly including transparent or reflective parts, - trimming at least one part of the 2D images acquired, in order to calculate a set of 2D silhouettes of the object to be reconstructed, - calculating, based on the 2D silhouettes obtained, a volumetric representation of the object ; - converting, by Marching Cubes, the volumetric representation of the object into a 3D surface mesh of the object , - iteratively applying two steps of simplifying and smoothing the 3D surface mesh of the object . - acquiring two-dimensional images of the pair of spectacles , possibly including transparent or reflective parts, - trimming at least one part of the 2D images acquired, in order to calculate a set of 2D silhouettes of the object to be reconstructed, - calculating, based on the 2D silhouettes obtained, a volumetric representation of the object ; - converting, by Marching Cubes, the volumetric representation of the object into a 3D surface mesh of the object , - iteratively applying two steps of simplifying and smoothing the 3D surface mesh of the object .
A keyless coupling for a tool shaft and a handpiece of a surgical instrument , comprising a first coupling portion provided at a proximal portion of the tool shaft , a second coupling portion provided at a distal portion of a shaft receptacle of the handpiece , and a locking/unlocking element , characterised in that - the locking/unlocking element is arranged on the tool shaft and forms a latch portion and the shaft receptacle comprises at least one recess provided and adapted to receive the latch portion in a locking position of the two coupling portions so that the latch portion and the recess are in latching engagement with each other and secure the two coupling portions against relative axial movement with respect to each other in the pulling direction and in the circumferential direction, wherein - the locking/unlocking element is preloaded in the locking position by means of a preloading element in a direction radially outward of the tool shaft , wherein the preloading element is a flexible spring, and - the tool shaft has a groove extending substantially in its longitudinal direction, wherein the groove is provided and adapted to receive the locking/unlocking element along its entire length, and - that the locking/unlocking element is arranged at its distal end to be rotatable about a pivot axis in the groove , so that the locking/unlocking element is pivotable out of and into the groove . - the locking/unlocking element is arranged on the tool shaft and forms a latch portion and the shaft receptacle comprises at least one recess provided and adapted to receive the latch portion in a locking position of the two coupling portions so that the latch portion and the recess are in latching engagement with each other and secure the two coupling portions against relative axial movement with respect to each other in the pulling direction and in the circumferential direction, wherein - the locking/unlocking element is preloaded in the locking position by means of a preloading element in a direction radially outward of the tool shaft , wherein the preloading element is a flexible spring, and - the tool shaft has a groove extending substantially in its longitudinal direction, wherein the groove is provided and adapted to receive the locking/unlocking element along its entire length, and - that the locking/unlocking element is arranged at its distal end to be rotatable about a pivot axis in the groove , so that the locking/unlocking element is pivotable out of and into the groove .
A method for producing a carbon nanotube sheet, the method comprising: firstly modifying a free-standing unmodified carbon nanotube sheet in which a plurality of carbon nanotubes are aligned in a predetermined direction, wherein the firstly modifying includes performing a densification process of bringing the unmodified carbon nanotube sheet into contact with either one of or both of vapor and liquid particles of a liquid substance to produce a modified carbon nanotube sheet that contains the carbon nanotubes which are mainly aligned in a predetermined direction, and that includes a high density portion where the carbon nanotubes are assembled together and a low density portion where density of the carbon nanotubes is relatively lower than density in the high density portion, wherein at least one layer of the unmodified carbon nanotube sheet is further stacked on at least one layer of the modified carbon nanotube sheet, and wherein a first orientation direction of the carbon nanotubes of the at least one unmodified carbon nanotube sheet and a second orientation direction of the carbon nanotubes of the at least one modified carbon nanotube sheet are oriented in substantially the same direction, whereby substantially the same direction includes displacements between the first orientation direction and the second orientation direction within a range of 15° or smaller. firstly modifying a free-standing unmodified carbon nanotube sheet in which a plurality of carbon nanotubes are aligned in a predetermined direction, wherein the firstly modifying includes performing a densification process of bringing the unmodified carbon nanotube sheet into contact with either one of or both of vapor and liquid particles of a liquid substance to produce a modified carbon nanotube sheet that contains the carbon nanotubes which are mainly aligned in a predetermined direction, and that includes a high density portion where the carbon nanotubes are assembled together and a low density portion where density of the carbon nanotubes is relatively lower than density in the high density portion, wherein at least one layer of the unmodified carbon nanotube sheet is further stacked on at least one layer of the modified carbon nanotube sheet, and wherein a first orientation direction of the carbon nanotubes of the at least one unmodified carbon nanotube sheet and a second orientation direction of the carbon nanotubes of the at least one modified carbon nanotube sheet are oriented in substantially the same direction, whereby substantially the same direction includes displacements between the first orientation direction and the second orientation direction within a range of 15° or smaller.
Device comprising a cylinder head and a retaining device for fixing at least one fuel injection nozzle for an internal combustion engine , which fuel injection nozzle can be inserted in a bore of a cylinder head and can supply fuel to a combustion chamber between the cylinder head and a reciprocating piston by means of a nozzle tip , it being possible, by means of the retaining device and a plurality of fastening screws , to hold the fuel injection nozzle in position on a housing portion of the internal combustion engine such that the retaining device clamps the fuel injection nozzle against a stop in the bore of the cylinder head , the retaining device of the fuel injection nozzle comprising a jacket cup which surrounds said nozzle at least in portions and which has a fastening flange and a retaining bushing at least for axially securing the fuel injection nozzle , and it being possible to fasten the retaining device on the housing portion by means of the fastening flange using fastening screws (26, 27 and 28), characterized in that the fastening flange is annular and the evenly distributed fastening screws (26, 27 and 28) are arranged on a circumferential center line of said fastening flange , the jacket cup being designed in the manner of a tapered conical casing from the fastening flange in the direction of the retaining bushing .
An apparatus for transmitting multiple on-demand audio streams locally to web-enabled devices , the apparatus comprising: a fused power entry module; a power supply ; a microcomputer powered by the power supply; an audio acquisition card connected to the microcomputer ; analog audio input ports connected to a microphone and to the audio acquisition card configured to receive analog audio signals which are digitized by the audio acquisition card to form digitized signals and which are transcoded by the microcomputer into a Real-time Transport Protocol, RTP, audio stream; ground-loop noise isolators and noise filters connected to each of the audio input ports configured to reduce noise in each of the analog audio signals; and a router connected to the microcomputer and powered by the power supply, the router having two network ports, wherein the router is configured to wirelessly stream the RTP audio stream via Wi-Fi to the web-enabled devices . a fused power entry module; a power supply ; a microcomputer powered by the power supply; an audio acquisition card connected to the microcomputer ; analog audio input ports connected to a microphone and to the audio acquisition card configured to receive analog audio signals which are digitized by the audio acquisition card to form digitized signals and which are transcoded by the microcomputer into a Real-time Transport Protocol, RTP, audio stream; ground-loop noise isolators and noise filters connected to each of the audio input ports configured to reduce noise in each of the analog audio signals; and a router connected to the microcomputer and powered by the power supply, the router having two network ports, wherein the router is configured to wirelessly stream the RTP audio stream via Wi-Fi to the web-enabled devices .
A method comprising: forming metal etching islands on a first face of a substrate and on a second face of the substrate nonparallel to the first face, wherein the substrate comprises silicon, polysilicon, silicon germanium, or a combination thereof; concurrently exposing the first face and the second face of the substrate to an etching solution that reacts with the metal etching islands to concurrently form porous regions extending into the first face and the second face, the porous regions comprising interconnected pores ; and interconnecting the porous region extending into the first face and the porous region extending into the second face to form a filter passage through the substrate. forming metal etching islands on a first face of a substrate and on a second face of the substrate nonparallel to the first face, wherein the substrate comprises silicon, polysilicon, silicon germanium, or a combination thereof; concurrently exposing the first face and the second face of the substrate to an etching solution that reacts with the metal etching islands to concurrently form porous regions extending into the first face and the second face, the porous regions comprising interconnected pores ; and interconnecting the porous region extending into the first face and the porous region extending into the second face to form a filter passage through the substrate.
A method for cooling a furnace electrode made of graphite, comprising: mixing a surfactant comprising an alkylphenol and an oxirane polymer with water to form a cooling liquid , whereby the surfactant is present in the cooling liquid in an amount in a range of from 10 mg/l to 5,000 mg/l, and spraying at least a surface of the furnace electrode disposed adjacent a furnace with the cooling liquid , thereby cooling the furnace electrode . mixing a surfactant comprising an alkylphenol and an oxirane polymer with water to form a cooling liquid , whereby the surfactant is present in the cooling liquid in an amount in a range of from 10 mg/l to 5,000 mg/l, and spraying at least a surface of the furnace electrode disposed adjacent a furnace with the cooling liquid , thereby cooling the furnace electrode .
Fixing device with at least two threaded rings which accommodate between them a diaphragm which is an integral part of this ring pair and which is kept at a distance from the rings by introduced slots , which slots run linearly in an unassembled state and all open outwards into the environment, and rests on webs which are only partially annular, and with at least one tensioning screw by means of which the axial distance between the rings is adjustable, wherein at least one tensioning screw extends through the diaphragm between two adjacent webs , in that, in the unassembled state, the diaphragm is oriented parallel to the rings without deformation and, in an assembled state, the diaphragm is moved between the webs in a deformed state towards at least one of the rings , at least partially forming an oblique or arced profile as soon as the distance (a) between the rings of a pair is reduced by means of the respectively assignable tensioning screw , and in that the at least one tensioning screw extending through the diaphragm extends through adjacently arranged slots which are separated from the diaphragm .
An abrasive article comprising: a substrate comprising an elongated body; a plurality of discrete tacking regions comprising a metal material overlying the substrate , wherein at least one discrete tacking region is isolated from another discrete tacking region , and at least one abrasive particle is associated with each discrete tacking region ; a bonding layer , wherein the bonding layer is in direct contact with at least a portion of the substrate ; characterized in that : the abrasive article further comprises a plurality of discrete formations overlying the substrate and spaced apart from the plurality of discrete tacking regions and the abrasive particles , the discrete formations being regions on the surface of the substrate that are not bonded to or associated with an abrasive particle , and the bonding layer overlies the plurality of discrete tacking regions , the at least one abrasive particle and the plurality of discrete formations . a substrate comprising an elongated body; a plurality of discrete tacking regions comprising a metal material overlying the substrate , wherein at least one discrete tacking region is isolated from another discrete tacking region , and at least one abrasive particle is associated with each discrete tacking region ; a bonding layer , wherein the bonding layer is in direct contact with at least a portion of the substrate ; characterized in that : the abrasive article further comprises a plurality of discrete formations overlying the substrate and spaced apart from the plurality of discrete tacking regions and the abrasive particles , the discrete formations being regions on the surface of the substrate that are not bonded to or associated with an abrasive particle , and the bonding layer overlies the plurality of discrete tacking regions , the at least one abrasive particle and the plurality of discrete formations . the abrasive article further comprises a plurality of discrete formations overlying the substrate and spaced apart from the plurality of discrete tacking regions and the abrasive particles , the discrete formations being regions on the surface of the substrate that are not bonded to or associated with an abrasive particle , and the bonding layer overlies the plurality of discrete tacking regions , the at least one abrasive particle and the plurality of discrete formations .
Method for masking a first noise (G1) which is generated by a part of a motor vehicle under a certain triggering condition, wherein, to mask the first noise (G1), at least one second noise (G2, G3, G4) is superimposed on the first noise, wherein the first noise (G1) is generated by the closing of at least one main contactor assigned to a battery of the motor vehicle , characterised in that the certain triggering condition constitutes the initiation of an unlocking process for unlocking doors of the motor vehicle , wherein the at least one second noise (G4) constitutes an unlocking noise (G4) generated during the unlocking process by an unlocking apparatus.