mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a state of a water heating system for providing an anomaly identification, said method comprising: /a/ measuring a water temperature at least at one location and repeatedly in the heating system; /b/ repeatedly measuring vibrations of at least part of the heating system; /c/ sending data corresponding to said measurements to a processing unit ; /d/ determining at least the temporal evolution of the temperature and vibrations by the processing unit; /e/ providing an anomaly identification based on the result of the determination step; characterised in that the heating system comprises a motor arranged to cause the circulation of water; during step /a/, the water temperature is measured at the inlet of said motor. /a/ measuring a water temperature at least at one location and repeatedly in the heating system; /b/ repeatedly measuring vibrations of at least part of the heating system; /c/ sending data corresponding to said measurements to a processing unit ; /d/ determining at least the temporal evolution of the temperature and vibrations by the processing unit; /e/ providing an anomaly identification based on the result of the determination step; characterised in that the heating system comprises a motor arranged to cause the circulation of water; during step /a/, the water temperature is measured at the inlet of said motor.
A power take off comprising: a housing ; an input mechanism that is supported in the housing and is adapted to be rotatably driven by a source of rotational energy; and an output mechanism that is supported in the housing and is rotatably driven by the input mechanism , the output mechanism being adapted to rotatably drive a rotatably driven accessory, wherein the power take off further includes a two piece damping assembly that minimizes the transmission of torque transients from the input mechanism to the output mechanism , wherein : the two piece damping assembly is an input cluster gear assembly that includes a first gear portion and a second gear portion that are supported for rotational movement relative to one another, and the housing includes an opening , and wherein the first gear portion extends outwardly from the housing through the opening . a housing ; an input mechanism that is supported in the housing and is adapted to be rotatably driven by a source of rotational energy; and an output mechanism that is supported in the housing and is rotatably driven by the input mechanism , the output mechanism being adapted to rotatably drive a rotatably driven accessory, wherein the power take off further includes a two piece damping assembly that minimizes the transmission of torque transients from the input mechanism to the output mechanism , wherein : the two piece damping assembly is an input cluster gear assembly that includes a first gear portion and a second gear portion that are supported for rotational movement relative to one another, and the housing includes an opening , and wherein the first gear portion extends outwardly from the housing through the opening . the two piece damping assembly is an input cluster gear assembly that includes a first gear portion and a second gear portion that are supported for rotational movement relative to one another, and the housing includes an opening , and wherein the first gear portion extends outwardly from the housing through the opening .
A head-mounted display apparatus, comprising: a light source module configured to provide an illumination beam (L1); an optical adjustment element , disposed on a transmission path of the illumination beam (L1); a display module disposed on the transmission path of the illumination beam (L1), and configured to convert the illumination beam (L1) into an image beam (L2), wherein the optical adjustment element is located between the light source module and the display module ; and a lens element disposed on a transmission path of the image beam (L2), wherein a transmission direction of the maximum light-emitting intensity of the illumination beam (L1) transmitted from the light source module to the optical adjustment element is different to a transmission direction of the maximum light-emitting intensity of the illumination beam (L1) transmitted from the optical adjustment element to the display module , wherein the illumination beam (L1) provided by the light source module is collimated light, and wherein the optical adjustment element is a Fresnel lens. a light source module configured to provide an illumination beam (L1); an optical adjustment element , disposed on a transmission path of the illumination beam (L1); a display module disposed on the transmission path of the illumination beam (L1), and configured to convert the illumination beam (L1) into an image beam (L2), wherein the optical adjustment element is located between the light source module and the display module ; and a lens element disposed on a transmission path of the image beam (L2), wherein a transmission direction of the maximum light-emitting intensity of the illumination beam (L1) transmitted from the light source module to the optical adjustment element is different to a transmission direction of the maximum light-emitting intensity of the illumination beam (L1) transmitted from the optical adjustment element to the display module , wherein the illumination beam (L1) provided by the light source module is collimated light, and wherein the optical adjustment element is a Fresnel lens.
A coating process for the deposition of a layer of a first material onto a substrate of a second material, the second material optionally being different from the first material, the process including the steps: entraining powder particles of the first material into a carrier gas flow to form a powder beam directed to impinge on the substrate, thereby defining a powder beam footprint region at the substrate; causing relative movement of the powder beam and the substrate in a movement direction to move the powder beam footprint relative to the substrate to deposit the layer of the first material; operating a laser source to direct a laser beam along a laser beam direction to provide a laser beam footprint to cause direct, local heating of at least one of the forward substrate region and the powder beam footprint region, characterized in that the laser beam direction is defined: (i) with reference to a plane coincident with a surface of the substrate at the centre of the laser beam footprint, or (ii) when the substrate is non-planar, with reference to a plane tangential to surface of the substrate at the centre of the laser beam footprint, in terms of an elevation angle from the plane to the laser beam direction and in terms of an acute azimuthal angle from the movement direction to the laser beam direction, wherein the elevation angle is 30° or more and 80° or less and the azimuthal angle is in the range -60° to +60°. entraining powder particles of the first material into a carrier gas flow to form a powder beam directed to impinge on the substrate, thereby defining a powder beam footprint region at the substrate; causing relative movement of the powder beam and the substrate in a movement direction to move the powder beam footprint relative to the substrate to deposit the layer of the first material; operating a laser source to direct a laser beam along a laser beam direction to provide a laser beam footprint to cause direct, local heating of at least one of the forward substrate region and the powder beam footprint region, (i) with reference to a plane coincident with a surface of the substrate at the centre of the laser beam footprint, or (ii) when the substrate is non-planar, with reference to a plane tangential to surface of the substrate at the centre of the laser beam footprint,
A method of fabricating an element (C, P1, P2, P3) in ground (S) to improve the mechanical properties of said ground, the method comprising: providing a drilling and mixing tool ; a step of drilling an excavation (E/T) in the ground (S) comprising a stage of lowering the drilling and mixing tool followed by a stage of raising the drilling and mixing tool; said method including: a step of injecting a first composition (A) during the lowering stage; a step of injecting a second composition (B) during the raising stage, the first composition or the second composition containing an alkaline base, the first composition (A) containing a silico-aluminous mineral while the second composition contains the alkaline base, and when the first composition (B) contains the alkaline base, the second composition contains a silico-aluminous mineral; and an in situ mixing step, in the excavation, comprising a first stage of in situ mixing of the ground in place with the first composition (A) during the lowering stage, followed by a second stage of in situ mixing of the second composition (B) with the ground in place as previously mixed with the first composition (A), the second mixing stage taking place during the raising stage, a geopolymer (G) being formed in situ by reaction of the first composition (A) with the second composition (B). providing a drilling and mixing tool ; a step of drilling an excavation (E/T) in the ground (S) comprising a stage of lowering the drilling and mixing tool followed by a stage of raising the drilling and mixing tool; a step of injecting a first composition (A) during the lowering stage; a step of injecting a second composition (B) during the raising stage, the first composition or the second composition containing an alkaline base, the first composition (A) containing a silico-aluminous mineral while the second composition contains the alkaline base, and when the first composition (B) contains the alkaline base, the second composition contains a silico-aluminous mineral; and an in situ mixing step, in the excavation, comprising a first stage of in situ mixing of the ground in place with the first composition (A) during the lowering stage, followed by a second stage of in situ mixing of the second composition (B) with the ground in place as previously mixed with the first composition (A), the second mixing stage taking place during the raising stage, a geopolymer (G) being formed in situ by reaction of the first composition (A) with the second composition (B).
Grommet station with a grommet assembly module for providing a cable end of a cable with a grommet , the grommet assembly module comprising: - an assembly unit comprising an expansion sleeve that is formed in two parts, comprises two radially counter-movable shell parts and is intended for holding the grommet in the expanded state and placing the grommet on the cable end, and comprising a grommet-receiving device that is formed in two parts, comprises two jaws and is intended for receiving and holding the grommet during the assembly operation, wherein the jaws of the grommet-receiving device are each movable in pairs together with the respective shell parts of the expansion sleeve between a closed position and an open position, - a transfer unit having at least one mandrel onto which a grommet can be pushed in an acquisition position and which is in operative connection with the assembly unit in a delivery position such that the mandrel can provide the assembly unit with the grommet , wherein the expansion sleeve of the assembly unit temporarily encompasses the mandrel in the delivery position, wherein the mandrel and the expansion sleeve are oriented in the same direction, characterized in that pushing means are integrated in the grommet-receiving device for further pushing the grommet that was already placed onto the mandrel onto a section of the mandrel with a larger diameter in order to widen the grommet, which pushing means comprise, in the jaws , resiliently mounted preferably plate-like pushing elements which can move in the transverse direction to a limited extent. - an assembly unit comprising an expansion sleeve that is formed in two parts, comprises two radially counter-movable shell parts and is intended for holding the grommet in the expanded state and placing the grommet on the cable end, and comprising a grommet-receiving device that is formed in two parts, comprises two jaws and is intended for receiving and holding the grommet during the assembly operation, wherein the jaws of the grommet-receiving device are each movable in pairs together with the respective shell parts of the expansion sleeve between a closed position and an open position, - a transfer unit having at least one mandrel onto which a grommet can be pushed in an acquisition position and which is in operative connection with the assembly unit in a delivery position such that the mandrel can provide the assembly unit with the grommet ,
An electronic device comprising: a display ; an antenna structure ; a conductive support disposed between the display and the antenna structure ; a sensor disposed between the display and the conductive support ; a first printed circuit board disposed between the conductive support and the antenna structure ; a second printed circuit board stacked on the first printed circuit board ; a board support coupled with the conductive support 310) and overlapping at least part of the second printed circuit board ; a first insulating member comprising an insulating material disposed between the board support and the antenna structure ; and wherein the first insulating member is in contact with a surface of the board support and a surface of the antenna structure ; and when viewed from a front of the display, the conductive support , the board support , the first insulating member and the antenna structure are sequentially stacked. a display ; an antenna structure ; a conductive support disposed between the display and the antenna structure ; a sensor disposed between the display and the conductive support ; a first printed circuit board disposed between the conductive support and the antenna structure ; a second printed circuit board stacked on the first printed circuit board ; a board support coupled with the conductive support 310) and overlapping at least part of the second printed circuit board ; a first insulating member comprising an insulating material disposed between the board support and the antenna structure ; and wherein the first insulating member is in contact with a surface of the board support and a surface of the antenna structure ; and when viewed from a front of the display, the conductive support , the board support , the first insulating member and the antenna structure are sequentially stacked.
An EMI shielding composition comprising a) a resin comprising a thermoplastic resin and/or a thermoset resin; b) a reactive diluent and optionally a solvent; and, c) particles comprising a mixture of magnetic particles and electrically conductive particles or magnetic particles coated with an electrically conductive material or a mixture of electrically conductive particles and magnetic particles coated with an electrically conductive material, wherein said reactive diluent is selected from the group consisting of 3,4-epoxycyclohexanecarboxylate, isobornyl acrylate, 2-phenoxyethyl acrylate, neodecanic acid-2, 3-epoxypropyl ester, 1, 4-butanedioldiglycidyl ether; C 8 -C 10 alkyl glycidyl ethers selected from n-butylglycidyl ether and 2-ethylhexyl glycidyl ether; aromatic glycidyl ethers selected from phenyl gylcidyl ether, cresyl glycidyl ether and p-s-butylphenyl glycidyl ether, tetraglycidylbis- (p-aminophenyl)-methane; styrene oxide; α-pinene oxide; monoepoxide compounds having other functional group(s) selected from allyl glycidyl ether, glycidyl methacrylate, glycidyl acrylate and 1-vinyl-3,4-epoxycyclohexane; a diepoxide compound selected from (poly)ethylene glycol diglycidyl ether, (poly)propylene glycol diglycidyl ether, butanediol diglycidyl ether and neopentyl glycol diglycidyl ether; and a triepoxide compound selected from trimethylolpropane triglycidyl ether and glycerin triglycidyl ether; and, mixtures thereof; wherein said electrically conductive particles, if present, are provided in powder form, flake form or a mixture thereof; and, wherein said composition comprises ≥ 10% magnetic particles by weight, by total weight of the composition. a) a resin comprising a thermoplastic resin and/or a thermoset resin; b) a reactive diluent and optionally a solvent; and, c) particles comprising a mixture of magnetic particles and electrically conductive particles or magnetic particles coated with an electrically conductive material or a mixture of electrically conductive particles and magnetic particles coated with an electrically conductive material, wherein said electrically conductive particles, if present, are provided in powder form, flake form or a mixture thereof; and, wherein said composition comprises ≥ 10% magnetic particles by weight, by total weight of the composition.
A patient interface comprising: a blower comprising: an impeller , a motor for driving rotation of the impeller , the motor comprising a stator and a rotor coupled to the impeller, a blower housing comprising an impeller space for housing the impeller, a blower inlet , and a blower outlet ; a cushion for contacting a user's face; and a mask body and/or a frame for supporting the cushion on a user's face, the cushion and/or the mask body or frame defining an interior space for receiving a flow of gases from the blower; wherein the blower is mounted within or at least partially within the mask body or the frame , and wherein the blower further comprises at least one first vibration isolation member between the impeller and the stator and/or between the stator and the blower housing; and characterized by the patient interface further comprising a second vibration isolation member between the blower or blower housing and the mask body or frame , and wherein the second vibration isolation member forms a pneumatic seal between the blower or blower housing and the mask body or frame . a blower comprising: an impeller , a motor for driving rotation of the impeller , the motor comprising a stator and a rotor coupled to the impeller, a blower housing comprising an impeller space for housing the impeller, a blower inlet , and a blower outlet ; an impeller , a motor for driving rotation of the impeller , the motor comprising a stator and a rotor coupled to the impeller, a blower housing comprising an impeller space for housing the impeller, a blower inlet , and a blower outlet ; a cushion for contacting a user's face; and a mask body and/or a frame for supporting the cushion on a user's face, the cushion and/or the mask body or frame defining an interior space for receiving a flow of gases from the blower; wherein the blower is mounted within or at least partially within the mask body or the frame , and wherein the blower further comprises at least one first vibration isolation member between the impeller and the stator and/or between the stator and the blower housing; and
A curable composition comprising: a hydrolyzable silyl group-containing polyoxyalkylene polymer (A); silica (B); a silane compound (C) containing an alkyl group having four or more carbon atoms; and a compound (D) resulting from partial condensation of silyl groups of an aminosilane alone or partial condensation of the aminosilane with an alkoxysilane compound other than aminosilanes. a hydrolyzable silyl group-containing polyoxyalkylene polymer (A); silica (B); a silane compound (C) containing an alkyl group having four or more carbon atoms; and a compound (D) resulting from partial condensation of silyl groups of an aminosilane alone or partial condensation of the aminosilane with an alkoxysilane compound other than aminosilanes.
A method of eliminating background amplification in isothermal amplification of nucleic acid targets, the method comprising steps of: preparing a mixture including buffer and enzymes; and adding a first, a second and a third oligonucleotides into the mixture, wherein: - the first oligonucleotide is an amplification oligonucleotide including a partial repeat structure containing a nicking enzyme recognition site, - - the second oligonucleotide is a leak absorption oligonucleotide able to bind, extend, deactivate and slowly release the products of polymerization along the first oligonucleotide, thereby inducing a threshold effect and - the third oligonucleotide is a target-specific conversion oligonucleotide, wherein its 3' side can bind to a target sequence and upon polymerization and nicking, the third oligonucleotide outputs a sequence able to activate the first oligonucleotide above the threshold adjusted by controlling concentration of the second oligonucleotide, and wherein a 3' end of the first oligonucleotide has a reduced affinity for an amplified sequence, in comparison to the 5' output part of the first oligonucleotide and to the binding part of the second leak-absorption oligonucleotide. preparing a mixture including buffer and enzymes; and adding a first, a second and a third oligonucleotides into the mixture, wherein: - the first oligonucleotide is an amplification oligonucleotide including a partial repeat structure containing a nicking enzyme recognition site, - - the second oligonucleotide is a leak absorption oligonucleotide able to bind, extend, deactivate and slowly release the products of polymerization along the first oligonucleotide, thereby inducing a threshold effect and - the third oligonucleotide is a target-specific conversion oligonucleotide, wherein its 3' side can bind to a target sequence and upon polymerization and nicking, the third oligonucleotide outputs a sequence able to activate the first oligonucleotide above the threshold adjusted by controlling concentration of the second oligonucleotide, and wherein a 3' end of the first oligonucleotide has a reduced affinity for an amplified sequence, in comparison to the 5' output part of the first oligonucleotide and to the binding part of the second leak-absorption oligonucleotide. - the first oligonucleotide is an amplification oligonucleotide including a partial repeat structure containing a nicking enzyme recognition site, - - the second oligonucleotide is a leak absorption oligonucleotide able to bind, extend, deactivate and slowly release the products of polymerization along the first oligonucleotide, thereby inducing a threshold effect and - the third oligonucleotide is a target-specific conversion oligonucleotide, wherein its 3' side can bind to a target sequence and upon polymerization and nicking, the third oligonucleotide outputs a sequence able to activate the first oligonucleotide above the threshold adjusted by controlling concentration of the second oligonucleotide, and
A concentrate container having a concentrate (K) that is configured to form a dialysis solution after its dilution with a diluting agent, wherein the concentrate container is in communication with a first connector (K1) having a first code (C1) that contains a piece of information on the concentrate (K); and the concentrate container is furthermore in communication with a second connector (K2) having second code (C2) differing from the first code (C1), and containing a piece of information on the dialysis solution, characterized in that both the first connector (K1) and the second connector (K2) are arranged directly at the concentrate container or are only arranged at a line piece whose hollow space is in communication with the inner space of the concentrate container .