mhurhangee/patent-ind-claim-en huggingface dataset:
Rim for wheel including a measuring system to detect a vertical load (Fv) applied to the wheel in operating conditions with wheel mounted with horizontal rotation axis, the measuring system comprising: - a sensor to detect a deformation of the rim and to transmit a deformation signal related to the detected deformation, and - a processing unit , operatively connected to the sensor , configured to receive the deformation signal, and to determine the vertical load applied to the wheel , based on the deformation of the rim detected by the sensor , characterized in that the processing unit: detects and stores a first value (L MIN ) of absolute minimum, a second value (L MAX ) of absolute maximum and a value (Lt_med) of relative minimum of the deformation signal generated by said sensor during a rotation of the rim , and calculates the value of the vertical (F V ) load acting on the wheel, based on the first value (L MIN ) of absolute minimum, the second value (L MAX ) of absolute maximum and the value (Lt_med) of relative minimum of the deformation signal generated by said sensor stored. - a sensor to detect a deformation of the rim and to transmit a deformation signal related to the detected deformation, and - a processing unit , operatively connected to the sensor , configured to receive the deformation signal, and to determine the vertical load applied to the wheel , based on the deformation of the rim detected by the sensor , characterized in that detects and stores a first value (L MIN ) of absolute minimum, a second value (L MAX ) of absolute maximum and a value (Lt_med) of relative minimum of the deformation signal generated by said sensor during a rotation of the rim , and calculates the value of the vertical (F V ) load acting on the wheel, based on the first value (L MIN ) of absolute minimum, the second value (L MAX ) of absolute maximum and the value (Lt_med) of relative minimum of the deformation signal generated by said sensor stored.
The use, in the lubrication of a spark-ignited or compression-ignited internal combustion engine, of an oil-soluble or oil-dispersible polymeric friction modifier (B), as an additive in an effective minor amount of at least 0.1 mass % based on the total mass of the lubricating oil composition, in a lubricating oil composition comprising an oil of lubricating viscosity (A) in a major amount, to reduce and/or inhibit corrosion of the copper and/or lead, or an alloy of such metals, containing engine components during operation of the engine compared with a comparable lubricant which includes glycerol monooleate friction modifier and an oil-soluble or oil-dispersible dihydrocarbyl dithiophosphate metal salt, wherein: the oil-soluble or oil-dispersible polymeric friction modifier (B) is the reaction product of only: (i) one or more polyisobutylene succinic anhydrides (PIBSAs); and, (ii) one or more poly(C 2 to C 6 alkylene) glycol(s); and, (iii) one or more C 2 to C 20 aliphatic hydrocarbyl polyols; and, (iv) one or more unsaturated acyclic C 6 to C 30 hydrocarbyl monocarboxylic acids; and, wherein the lubricating oil composition includes an oil-soluble or oil-dispersible dihydrocarbyl dithiophosphate metal salt (C), as an additive in an effective minor amount.
A composition comprising: (a) cabazitaxel, and (b) a sulfobutylether beta-cyclodextrin, wherein such composition does not contain any ethanol. (a) cabazitaxel, and (b) a sulfobutylether beta-cyclodextrin,
A three-dimensional laminating and shaping apparatus to laminate and shape a three-dimensional structure , comprising: a powder feeding unit configured to feed a powder layer of an electrically conductive material; an electron beam column configured to output an electron beam and deflect the electron beam (EB) toward a front surface of the powder layer ; an insulating portion that is in contact with the three-dimensional structure and electrically insulates the three-dimensional structure from a ground potential member; an ammeter connected between the three-dimensional structure and the ground potential member and configured to measure a current value of a current flowing into the ground potential member after passing through the three-dimensional structure ; a melting judging unit configured to, based on the current value measured by the ammeter , detect that the powder layer is melted and generate a melting signal; and a deflection controller configured to receive the melting signal and determine a condition of irradiation with the electron beam (EB) in response to the received melting signal. a powder feeding unit configured to feed a powder layer of an electrically conductive material; an electron beam column configured to output an electron beam and deflect the electron beam (EB) toward a front surface of the powder layer ; an insulating portion that is in contact with the three-dimensional structure and electrically insulates the three-dimensional structure from a ground potential member; an ammeter connected between the three-dimensional structure and the ground potential member and configured to measure a current value of a current flowing into the ground potential member after passing through the three-dimensional structure ; a melting judging unit configured to, based on the current value measured by the ammeter , detect that the powder layer is melted and generate a melting signal; and a deflection controller configured to receive the melting signal and determine a condition of irradiation with the electron beam (EB) in response to the received melting signal.
An electrical connection mount extending along an axial direction (X) and comprising an internal movable element that can move along the axial direction (X) between a contact position and an insulated position, wherein the movable element is configured to come into contact with at least one complementary contact of a complementary electrical connection mount in the contact position while the movable element is configured to be remote from the at least one complementary contact of the complementary electrical connection mount in the insulated position, the electrical connection mount comprising an internal displacement mechanism configured to move the movable element between the contact position and the insulated position when the electrical connection mount and the complementary electrical connection mount are engaged with each other and rotated relative to each other around the axial direction (X).
A respiratory apparatus comprising a respiratory therapy device to generate a flow of breathable gas; a delivery conduit to conduct the generated flow of breathable gas from the respiratory therapy device to a patient interface; a first controller located at the respiratory therapy device; a second controller located at or adjacent to a patient-end of the delivery conduit; and a set of wires ) along the delivery conduit connecting the first controller and the second controller , the set of wires comprising three wires for both heating of the delivery conduit and for data communication between the first controller and the second controller, characterized in that one or both of the first controller and second controller is configured to interleave communication operations and heating operations in alternating fashion through the set of wires . a respiratory therapy device to generate a flow of breathable gas; a delivery conduit to conduct the generated flow of breathable gas from the respiratory therapy device to a patient interface; a first controller located at the respiratory therapy device; a second controller located at or adjacent to a patient-end of the delivery conduit; and a set of wires ) along the delivery conduit connecting the first controller and the second controller , the set of wires comprising three wires for both heating of the delivery conduit and for data communication between the first controller and the second controller, characterized in that one or both of the first controller and second controller is configured to interleave communication operations and heating operations in alternating fashion through the set of wires .
A method for producing a contaminant separation composition for use in removal of dispersed, solubilized, and/or emulsified oils, hydrocarbons, microbes, endotoxins, triglycerides, and cholesterol from water and benign gases; comprising: (a) providing an initial glyceride composition comprising one or more drying oils and/or semi-drying oils; (b) cleaving and separating purified fatty acids from said glyceride composition, to thereby yield a blend comprised of purified saturated and mono and poly unsaturated fatty acids, said fatty acid blend being unique to said initial glyceride composition, wherein said cleaving of said fatty acids is effected by saponification of said initial glyceride composition, followed by acid neutralization of the resulting soap to free the fatty acids therein, or wherein said cleaving of each said fatty acid is effected by hydrolyzing the ester bond of the corresponding glyceride in said initial glyceride composition, freeing the fatty acid together with glycerin, followed by said separation of the fatty acid to comprise said fatty acid blend for said subsequent thermal reaction; and (c) thermally reacting said fatty acid blend from step (b) with a methacrylate or acrylate polymer compound to yield a homogeneous thermal reaction product as said contaminant removal composition. (a) providing an initial glyceride composition comprising one or more drying oils and/or semi-drying oils; (b) cleaving and separating purified fatty acids from said glyceride composition, to thereby yield a blend comprised of purified saturated and mono and poly unsaturated fatty acids, said fatty acid blend being unique to said initial glyceride composition, wherein said cleaving of said fatty acids is effected by saponification of said initial glyceride composition, followed by acid neutralization of the resulting soap to free the fatty acids therein, or wherein said cleaving of each said fatty acid is effected by hydrolyzing the ester bond of the corresponding glyceride in said initial glyceride composition, freeing the fatty acid together with glycerin, followed by said separation of the fatty acid to comprise said fatty acid blend for said subsequent thermal reaction; and (c) thermally reacting said fatty acid blend from step (b) with a methacrylate or acrylate polymer compound to yield a homogeneous thermal reaction product as said contaminant removal composition.
A treatment method for treating a surface for treatment by means of an automaton comprising: - a base configured to move over ground; - a platform mounted on the base and configured to move, at least in part, perpendicularly to the base , e.g. vertically; and - treatment means , e.g. an arm, mounted on the platform and including a movable end configured to treat a given area; the method being characterized in that it comprises: a) subdividing the surface for treatment into subdivisions of area less than or equal to the given area, the subdivisions being obtained by splitting up the surface for treatment with a regular rectangular grid with lines corresponding to movements of the platform and of the base ; a') determining a chronological order for treating said subdivisions ; b) treating the surface of each subdivision by controlling movements of the treatment means ; and c) changing subdivision by moving the platform , e.g. in vertical translation, and/or by moving the base over the ground. - a base configured to move over ground; - a platform mounted on the base and configured to move, at least in part, perpendicularly to the base , e.g. vertically; and - treatment means , e.g. an arm, mounted on the platform and including a movable end configured to treat a given area; the method being characterized in that it comprises: a) subdividing the surface for treatment into subdivisions of area less than or equal to the given area, the subdivisions being obtained by splitting up the surface for treatment with a regular rectangular grid with lines corresponding to movements of the platform and of the base ; a') determining a chronological order for treating said subdivisions ; b) treating the surface of each subdivision by controlling movements of the treatment means ; and c) changing subdivision by moving the platform , e.g. in vertical translation, and/or by moving the base over the ground. a) subdividing the surface for treatment into subdivisions of area less than or equal to the given area, the subdivisions being obtained by splitting up the surface for treatment with a regular rectangular grid with lines corresponding to movements of the platform and of the base ; a') determining a chronological order for treating said subdivisions ; b) treating the surface of each subdivision by controlling movements of the treatment means ; and c) changing subdivision by moving the platform , e.g. in vertical translation, and/or by moving the base over the ground.
A steel sheet for a hot press formed member having excellent resistance to hydrogen delayed fracture, comprising: a base steel sheet; an aluminum alloy plating layer formed on a surface of the base steel sheet; and an oxide layer formed on a surface of the plating layer and having a thickness of 0.3 μm or greater. an aluminum alloy plating layer formed on a surface of the base steel sheet; and an oxide layer formed on a surface of the plating layer and having a thickness of 0.3 μm or greater.
A protection system , configured for switching between backhaul technologies for upholding backhaul communication between two nodes in a wireless backhaul network, comprising: a main node and a dependent node , wherein the main node and the dependent node are configured for backhaul communication with each other, wherein the protection system further comprises a switching unit arranged at least partly inside the main node and/or arranged at least partly inside the dependent node and being configured for selecting a backhaul technology for the backhaul communication, wherein at least one of the main node and the dependent node are further configured for measuring a quality parameter of the backhaul communication, wherein the switching unit is further configured for switching the backhaul technology selected for backhaul communication to a predefined backhaul technology dependent on the quality parameter measured, where the different backhaul technologies enable the use of different frequency bands with different propagation properties for the backhaul communication that takes place between the main node and the dependent node. a main node and a dependent node , wherein the main node and the dependent node are configured for backhaul communication with each other, wherein the protection system further comprises a switching unit arranged at least partly inside the main node and/or arranged at least partly inside the dependent node and being configured for selecting a backhaul technology for the backhaul communication, wherein at least one of the main node and the dependent node are further configured for measuring a quality parameter of the backhaul communication, wherein the switching unit is further configured for switching the backhaul technology selected for backhaul communication to a predefined backhaul technology dependent on the quality parameter measured, where the different backhaul technologies enable the use of different frequency bands with different propagation properties for the backhaul communication that takes place between the main node and the dependent node.
A method of making a high molecular weight polyether polymer, comprising the step of reacting ingredients including: (i) a nitrogen-containing catalyst having at least one bridgehead nitrogen atom; (ii) a diepoxide compound; and (iii) a hindered polyhydric phenol compound having an atom or group with an atomic weight of at least 15 Daltons in an ortho position relative to an oxygen atom on a phenol ring; wherein the catalyst facilitates an upgrade reaction between the diepoxide compound and the hindered polyhydric phenol compound to make the high molecular weight polyether polymer, and the polyether polymer: (a) includes at least 25% by weight of aryl or heteroaryl groups, (b) contains less than 1,000 parts per million (ppm) by weight of bound bisphenol A, bisphenol F, bisphenol S, polyhydric phenols having estrogenic activity greater than or equal to that of bisphenol S, and epoxides thereof, and (c) has a number average molecular weight (Mn) of at least 2,000. (i) a nitrogen-containing catalyst having at least one bridgehead nitrogen atom; (ii) a diepoxide compound; and (iii) a hindered polyhydric phenol compound having an atom or group with an atomic weight of at least 15 Daltons in an ortho position relative to an oxygen atom on a phenol ring; the catalyst facilitates an upgrade reaction between the diepoxide compound and the hindered polyhydric phenol compound to make the high molecular weight polyether polymer, and the polyether polymer: (a) includes at least 25% by weight of aryl or heteroaryl groups, (b) contains less than 1,000 parts per million (ppm) by weight of bound bisphenol A, bisphenol F, bisphenol S, polyhydric phenols having estrogenic activity greater than or equal to that of bisphenol S, and epoxides thereof, and (c) has a number average molecular weight (Mn) of at least 2,000. (a) includes at least 25% by weight of aryl or heteroaryl groups, (b) contains less than 1,000 parts per million (ppm) by weight of bound bisphenol A, bisphenol F, bisphenol S, polyhydric phenols having estrogenic activity greater than or equal to that of bisphenol S, and epoxides thereof, and (c) has a number average molecular weight (Mn) of at least 2,000.
System disconnector assembly for physically disconnecting an upstream liquid system with inlet pressure from a downstream liquid system with outlet pressure by means of a drain valve, comprising (a) an essentially tube-shaped housing with an inlet and an outlet; (b) an upstream backflow preventer ; (c) a downstream backflow preventer , wherein a middle pressure chamber with middle pressure is formed between the upstream and the downstream backflow preventer; (d) a housing opening directed downwards when installed for establishing a connection from the middle pressure chamber towards the outside; (e) a drain valve for draining liquid arranged in the flow between the upstream backflow preventer and the downstream backflow preventer ; wherein (f) the upstream and the downstream backflow preventer are both coaxially installed in an essentially tube-shaped cartridge ; and (g) the housing is provided with a further housing opening having a width enabling the removal of the cartridge in a radial direction from the housing , characterized in that (h) the housing is continuously tube-shaped in the range of the cartridge; (i) the further housing opening extends along the entire length of the cartridge and is configured to be closed by a lid ; and (j) the drain valve comprises a coaxial piston which is shiftably guided in the housing and biased by a spring, which piston closes the downwards directed housing opening depending on the pressure conditions in a flow position where water flows from the inlet to the outlet and which releases the downwards directed opening in a disconnecting position for disconnecting the upstream from the downstream liquid system. (a) an essentially tube-shaped housing with an inlet and an outlet; (b) an upstream backflow preventer ; (c) a downstream backflow preventer , wherein a middle pressure chamber with middle pressure is formed between the upstream and the downstream backflow preventer; (d) a housing opening directed downwards when installed for establishing a connection from the middle pressure chamber towards the outside; (e) a drain valve for draining liquid arranged in the flow between the upstream backflow preventer and the downstream backflow preventer ; wherein (f) the upstream and the downstream backflow preventer are both coaxially installed in an essentially tube-shaped cartridge ; and (g) the housing is provided with a further housing opening having a width enabling the removal of the cartridge in a radial direction from the housing , characterized in that (h) the housing is continuously tube-shaped in the range of the cartridge; (i) the further housing opening extends along the entire length of the cartridge and is configured to be closed by a lid ; and (j) the drain valve comprises a coaxial piston which is shiftably guided in the housing and biased by a spring, which piston closes the downwards directed housing opening depending on the pressure conditions in a flow position where water flows from the inlet to the outlet and which releases the downwards directed opening in a disconnecting position for disconnecting the upstream from the downstream liquid system.
Assembly of a dental implant and a prosthetic element , which dental implant comprises a body arranged to be implanted into the jawbone, which prosthetic element comprises an intra-implant part and an extra-implant part , which body comprises an internal cavity provided for receiving the intra-implant part of the prosthetic element, which prosthetic element being a single piece element of which the intra-implant part is formed by a tenon arranged to be sealed or glued in the cavity, said cavity having an entrance section configured as a polygon , said prosthetic element comprising at a height of the junction between the intra- and extra-implant parts a junction part configured as a polygon in such a manner that the junction part is provided to fit in the entry section, said intra-implant part having a smooth wall and is provided with at least one discharge groove , characterised in that the extra-implant part is configured in the form of an attachment member arranged so as to apply a dental prosthesis directly thereto, the at least one discharge groove further extends over said junction part and over a distance of less than 1 cm over the extra-implant part and is provided for clearing a surplus of cement or glue as well as air which is present at the sealing or gluing.
An indoor unit of an air-conditioning apparatus , the indoor unit comprising: an opening provided in a casing ; a cover including a cover body configured to close the opening ; a heat medium heat exchanger disposed inside the casing , the heat medium heat exchanger being configured to exchange heat between a heat medium and indoor air; and an air processing unit located at a top of a heat medium flow path configured to allow the heat medium to flow through the heat medium heat exchanger , the air processing unit including an air reservoir and an air purge valve configured to discharge air in the air reservoir , wherein the air purge valve is positioned on a rear side in a projection direction of the opening inside the casing , the cover includes, on one side thereof, a single hook protruding from the cover body , and the cover includes, on an other side thereof opposite to the one side , a temporarily fixing tab configured to temporarily fix the cover to the casing with the cover body closing the opening . an opening provided in a casing ; a cover including a cover body configured to close the opening ; a heat medium heat exchanger disposed inside the casing , the heat medium heat exchanger being configured to exchange heat between a heat medium and indoor air; and an air processing unit located at a top of a heat medium flow path configured to allow the heat medium to flow through the heat medium heat exchanger , the air processing unit including an air reservoir and an air purge valve configured to discharge air in the air reservoir , wherein the air purge valve is positioned on a rear side in a projection direction of the opening inside the casing , the cover includes, on one side thereof, a single hook protruding from the cover body , and the cover includes, on an other side thereof opposite to the one side , a temporarily fixing tab configured to temporarily fix the cover to the casing with the cover body closing the opening .