mhurhangee/patent-ind-claim-en huggingface dataset:
A dry gas sealing system for a turbo machine, in particular for a turbo compressor, having at least one dry gas seal for sealing a rotor-side component against a stator-side component of the the turbo machine, having a shaft of a turbo machine, and having a cleaning device for cleaning process gas removed from the turbo machine, which after the cleaning is suppliable to the or each dry gas seal as cleaned sealing gas , characterized in that the cleaning device is embodied as centrifugal device that is integrated in the rotor-side component of the turbo machine, wherein the centrifugal device is integrated in the shaft and the shaft has at least one radial inlet bore for the process gas and for each dry gas seal has at least one radial outlet bore for the sealing gas .
Method of producing a carbonate bonded article, comprising: preparing a mixed precursor comprising a particulate metal source comprising one or more metals and an aqueous source, shaping the mixed precursor to obtain a shaped precursor, and reacting the shaped precursor with carbon dioxide, wherein the carbon dioxide reacts with the aqueous source to form carbonate or bicarbonate ions and the one or more metals react with the carbonate or bicarbonate ions and form carbonates of the one or more metals thus transforming the shaped precursor into the carbonate bonded article, wherein the one or more metals are transition and/or post-transition metals, the particulate metal source comprises at least 30% of the one or more metals by dry weight, preferably at least 40% by dry weight, preferably at least 50% by dry weight, preferably at least 60% by dry weight, preferably at least 75% by dry weight, and the mixed precursor is free from silica or comprises at most 30% by dry weight of silica, preferably at most 20% by dry weight, preferably at most 10% by dry weight, preferably at most 5% by dry weight, characterized in that the mixed precursor is substantially free of materials having hydraulic binding properties, and in that the step of reacting the shaped precursor with carbon dioxide takes place at a temperature of at least 30°C and a pressure of at least 5 bar. preparing a mixed precursor comprising a particulate metal source comprising one or more metals and an aqueous source, shaping the mixed precursor to obtain a shaped precursor, and reacting the shaped precursor with carbon dioxide, wherein the carbon dioxide reacts with the aqueous source to form carbonate or bicarbonate ions and the one or more metals react with the carbonate or bicarbonate ions and form carbonates of the one or more metals thus transforming the shaped precursor into the carbonate bonded article, the one or more metals are transition and/or post-transition metals, the particulate metal source comprises at least 30% of the one or more metals by dry weight, preferably at least 40% by dry weight, preferably at least 50% by dry weight, preferably at least 60% by dry weight, preferably at least 75% by dry weight, and the mixed precursor is free from silica or comprises at most 30% by dry weight of silica, preferably at most 20% by dry weight, preferably at most 10% by dry weight, preferably at most 5% by dry weight, characterized in that the mixed precursor is substantially free of materials having hydraulic binding properties, and in that the step of reacting the shaped precursor with carbon dioxide takes place at a temperature of at least 30°C and a pressure of at least 5 bar.
A system, comprising: an electrostatic spray tool , comprising: a turbine generator configured to generate electrical power to electrostatically charge a spray; and a controller configured to monitor the electrical power from the turbine generator and to instruct a gas supply to vary a gas flow to the turbine generator based on feedback received from one or more sensors , characterised in that the electrostatic spray tool comprises an inductive charging system configured to wirelessly transmit the electrical power from the turbine generator to at least one electrical component of the electrostatic spray tool . a turbine generator configured to generate electrical power to electrostatically charge a spray; and a controller configured to monitor the electrical power from the turbine generator and to instruct a gas supply to vary a gas flow to the turbine generator based on feedback received from one or more sensors , characterised in that the electrostatic spray tool comprises an inductive charging system configured to wirelessly transmit the electrical power from the turbine generator to at least one electrical component of the electrostatic spray tool .
Article sorting equipment comprising a flat conveyor of the chain type having carrier slats designed for conveying articles towards sorting outlets in a certain conveying direction (F1), said carrier slats being mounted to slide on the chain transversely relative to said conveying direction between a deployed position (PD) and a retracted position (PR), and a monitoring and control unit designed to cause the carrier slats to slide as a function of the sorting outlets into which the articles are to be sorted, said article sorting equipment being characterized in that the sorting outlets are disposed under the carrier slats of the chain , one after another in said conveying direction (F1) when the carrier slats are in the deployed position (PD), and said carrier slats are arranged to come out from under the articles when they are slid into the retracted position (PR) so as to cause the articles to fall into the sorting outlets , and in that the conveyor further comprises an abutment of the "comb" type on the chain that is designed to allow the carrier slats to slide and to prevent the transverse movement of the articles on the carrier slats beyond the abutment .
A personal protective mask , comprising: a main body having a top end , a bottom end , an inside surface , an outside surface , a middle section, and an outer periphery; an adhesive material that is disposed along the inside surface of the body along the outer periphery; an expandable section , configured to transition between an expanded orientation and a contracted orientation, that is positioned along the middle section; characterized by at least one resilient retention member , disposed along the expandable section , configured such that the expandable section defaults to the contracted orientation in a resting state. a main body having a top end , a bottom end , an inside surface , an outside surface , a middle section, and an outer periphery; an adhesive material that is disposed along the inside surface of the body along the outer periphery; an expandable section , configured to transition between an expanded orientation and a contracted orientation, that is positioned along the middle section; characterized by at least one resilient retention member , disposed along the expandable section , configured such that the expandable section defaults to the contracted orientation in a resting state.
A heating, ventilating, and air conditioning system comprising: a closed-conduit refrigeration circuit comprising: an expansion valve fluidly coupled to a sensory bulb , the expansion valve configured to regulate refrigerant flow within the closed-conduit refrigeration circuit, an evaporator fluidly-coupled to the expansion valve via a refrigeration line, a compressor fluidly-coupled to the evaporator via a suction line, a condenser fluidly-coupled to the compressor and to the expansion valve, the system being characterized by a heat-flow modulator , the heat-flow modulator comprising a modulator body having a first contact surface and a second contact surface, the first contact surface thermally-coupled to the suction line and the second contact surface thermally-coupled to the sensory bulb; and wherein the modulator body is formed from a thermally-insulating material, wherein the thermally-insulating material has a thermal conductivity less than 1 W / (m • K). an expansion valve fluidly coupled to a sensory bulb , the expansion valve configured to regulate refrigerant flow within the closed-conduit refrigeration circuit, an evaporator fluidly-coupled to the expansion valve via a refrigeration line, a compressor fluidly-coupled to the evaporator via a suction line, a condenser fluidly-coupled to the compressor and to the expansion valve, the system being characterized by a heat-flow modulator , the heat-flow modulator comprising a modulator body having a first contact surface and a second contact surface, the first contact surface thermally-coupled to the suction line and the second contact surface thermally-coupled to the sensory bulb; and wherein the modulator body is formed from a thermally-insulating material, wherein the thermally-insulating material has a thermal conductivity less than 1 W / (m • K).
A method of wireless communication performed by a base station, comprising: generating a wakeup signal for a user equipment, UE, in a guardband mode or a standalone mode, GB/SA mode, wherein the wakeup signal is based at least in part on a first base sequence associated with a first deployment mode, wherein the first base sequence includes more symbols than a second base sequence associated with a second deployment mode, and wherein the first base sequence includes the second base sequence and further includes one or more additional values from the second base sequence, wherein the first deployment mode is the GB/SA mode, and the second deployment mode is an inband mode; and transmitting the wakeup signal. generating a wakeup signal for a user equipment, UE, in a guardband mode or a standalone mode, GB/SA mode, wherein the wakeup signal is based at least in part on a first base sequence associated with a first deployment mode, wherein the first base sequence includes more symbols than a second base sequence associated with a second deployment mode, and wherein the first base sequence includes the second base sequence and further includes one or more additional values from the second base sequence, wherein the first deployment mode is the GB/SA mode, and the second deployment mode is an inband mode; and transmitting the wakeup signal.
A mobile device comprising: an acceleration sensor configured to detect an acceleration value, wherein the acceleration sensor is provided with a plurality of different measurement ranges; and a controller configured to determine whether the mobile device is in a moving state or a non-moving state, based on the acceleration value, characterized in that the controller is configured to change a measurement range of the acceleration sensor according to a result of the determination, and the controller is further configured to change the measurement range of the acceleration sensor to a maximum measurement range, if the result of the determination is the moving state and the moving state corresponds to walking or cycling. an acceleration sensor configured to detect an acceleration value, wherein the acceleration sensor is provided with a plurality of different measurement ranges; and a controller configured to determine whether the mobile device is in a moving state or a non-moving state, based on the acceleration value, characterized in that the controller is configured to change a measurement range of the acceleration sensor according to a result of the determination, and the controller is further configured to change the measurement range of the acceleration sensor to a maximum measurement range, if the result of the determination is the moving state and the moving state corresponds to walking or cycling.
Method for producing a component for a turbomachine, comprising the following steps: - additive build up of the component by means of an additive production method from a base material for the component and - introduction of material fibers into a construction for the component during the additive build up in such a way that the material fibers are oriented along a circumferential direction (A) of the component around a component axis and in such a way that a fiber composite material is created, the fiber composite material comprising the material fibers and a base material which is solidified as a result of the additive build up, wherein the material fibers comprise ceramic material consisting of aluminum oxide, mullite, SiBCN, SiCN or SiC. - additive build up of the component by means of an additive production method from a base material for the component and - introduction of material fibers into a construction for the component during the additive build up in such a way that the material fibers are oriented along a circumferential direction (A) of the component around a component axis and in such a way that a fiber composite material is created, the fiber composite material comprising the material fibers and a base material which is solidified as a result of the additive build up, wherein the material fibers comprise ceramic material consisting of aluminum oxide, mullite, SiBCN, SiCN or SiC.
An organic light emitting diode (OLED) comprising a light extraction member comprising a plurality of unit lenses arranged on one surface thereof, each of the unit lenses comprising a first conic lens forming a lower part of the unit lens and a second conic lens forming an upper part of the unit lens , and the first conic lens has a lens shape expressed as [Equation 1], and the second conic lens has a lens shape expressed as [Equation 2]: y = H 1 − x 2 / r 1 1 + 1 − 1 + k 1 1 / r 1 2 x 2 where r1 represents a curvature radius at a virtual vertex of the first conic lens , k1 represents a conic constant of the first conic lens , and H1 represents a height from a bottom surface of the first conic lens to the virtual vertex, and y = H 2 − x 2 / r 2 1 + 1 − 1 + k 2 1 / r 2 2 x 2 + y 0 where r2 represents a curvature radius at a vertex of the second conic lens , k2 represents a conic constant of the second conic lens , H2 represents a height from a bottom surface, which is formed of circular shape, of the second conic lens to the vertex, and y0 represents a height from the bottom surface of the first conic lens to a position where a diameter of the bottom surface of the second conic lens is equalized to a diameter of the cross-section of the first conic lens , wherein r1 ranges from 0,1 to 200% of the diameter of the bottom surface of the first conic lens , k1 ranges from -4 to -2.5, r2 ranges from 10 to 3000% of the diameter of the bottom surface of the second conic lens , and k2 ranges from -2.5 to 0, wherein the diameter of the bottom surface of the first conic lens ranges from 100 to 115% of a pitch which is a distance between centers of the bottom surfaces of the neighboring unit lenses, and wherein r2 has a different value from r1, and k2 has a different value from k1. where r2 represents a curvature radius at a vertex of the second conic lens , k2 represents a conic constant of the second conic lens , H2 represents a height from a bottom surface, which is formed of circular shape, of the second conic lens to the vertex, and y0 represents a height from the bottom surface of the first conic lens to a position where a diameter of the bottom surface of the second conic lens is equalized to a diameter of the cross-section of the first conic lens , wherein r1 ranges from 0,1 to 200% of the diameter of the bottom surface of the first conic lens , k1 ranges from -4 to -2.5, r2 ranges from 10 to 3000% of the diameter of the bottom surface of the second conic lens , and k2 ranges from -2.5 to 0, wherein the diameter of the bottom surface of the first conic lens ranges from 100 to 115% of a pitch which is a distance between centers of the bottom surfaces of the neighboring unit lenses, and wherein r2 has a different value from r1, and k2 has a different value from k1.
A rock crusher having a sealing system and a support bowl with a male threaded section , said male threaded section having an interior portion , said sealing system comprising: (a) an upper frame , said upper frame having a female threaded section and a scraper seal groove ; (b) a scraper seal , said scraper seal being configured to be disposed in the scraper seal groove of the upper frame and fit into the male threaded section of the support bowl ; wherein forces produced by the rock crusher pass directly to the upper frame from the male threaded section , and characterised in that said scraper seal is disposed in the scraper seal groove of the upper frame and into the male threaded section of the support bowl . (a) an upper frame , said upper frame having a female threaded section and a scraper seal groove ; (b) a scraper seal , said scraper seal being configured to be disposed in the scraper seal groove of the upper frame and fit into the male threaded section of the support bowl ;
A charge pump circuit for generating a negative voltage comprising: a two-phase clock generator configured to provide two anti-phase clock signals of a generated clock ; wherein the charge pump circuit comprises: a switched capacitor voltage inverter circuit comprising two independent transistor arrangements , wherein each transistor arrangement is arranged to receive and be driven by a respective anti-phase clock signal and generate a negative voltage therefrom on each alternate phases of the generated clock; a regulation control loop providing a feedback path from the output of the switched capacitor voltage inverter circuit to a supply input of the switched capacitor voltage inverter circuit , wherein the regulation control loop comprises a filter arranged to filter the generated negative voltage; and an output arranged to output the filtered generated negative voltage. a two-phase clock generator configured to provide two anti-phase clock signals of a generated clock ; wherein the charge pump circuit comprises: a switched capacitor voltage inverter circuit comprising two independent transistor arrangements , wherein each transistor arrangement is arranged to receive and be driven by a respective anti-phase clock signal and generate a negative voltage therefrom on each alternate phases of the generated clock; a regulation control loop providing a feedback path from the output of the switched capacitor voltage inverter circuit to a supply input of the switched capacitor voltage inverter circuit , wherein the regulation control loop comprises a filter arranged to filter the generated negative voltage; and an output arranged to output the filtered generated negative voltage. a switched capacitor voltage inverter circuit comprising two independent transistor arrangements , wherein each transistor arrangement is arranged to receive and be driven by a respective anti-phase clock signal and generate a negative voltage therefrom on each alternate phases of the generated clock; a regulation control loop providing a feedback path from the output of the switched capacitor voltage inverter circuit to a supply input of the switched capacitor voltage inverter circuit , wherein the regulation control loop comprises a filter arranged to filter the generated negative voltage; and an output arranged to output the filtered generated negative voltage.
Apparatus for cleaning feeding buckets provided with a teat , comprising: - a housing having at least one holder (17; 17A) for holding at least one feeding bucket provided with a teat , - with at least one nozzle (70; 72) for injecting a cleaning and/or rinsing liquid into the housing , with at least one additional device for the at least temporary mechanical compression of the teat , - characterized in that the additional device comprises at least one rotatably mounted camshaft having at least one cam and/or a roller by means of which the teat can be compressed. - a housing having at least one holder (17; 17A) for holding at least one feeding bucket provided with a teat , - with at least one nozzle (70; 72) for injecting a cleaning and/or rinsing liquid into the housing , with at least one additional device for the at least temporary mechanical compression of the teat , - characterized in that the additional device comprises at least one rotatably mounted camshaft having at least one cam and/or a roller by means of which the teat can be compressed.
A pressure-sensitive adhesive composition for a foldable display comprising: a first pressure-sensitive adhesive comprising a first silicone gum and having a peel force on a glass substrate, as measured at a peel rate of 0.3 m/min and a peel angle of 180 degrees, of 0.00386 N/mm (10 gf/in) or less; and a second pressure-sensitive adhesive comprising a second silicone gum and a second MQ resin and having a peel force on a glass substrate, as measured at a peel rate of 0.3 m/min and a peel angle of 180 degrees, of 0.0772 N/mm (200 gf/in) to 0.1544 N/mm (400 gf/in), wherein said first pressure-sensitive adhesive is contained in an amount of 5 wt% to 50 wt% relative to the total solid content of the composition and the second pressure-sensitive adhesive in included in the pressure-sensitive adhesive composition in an amount from 50 wt% to 95 wt%, relative to the total solid content of the composition, and the composition satisfies Equation 1 below: A < 0.00772 N / mm 20 gf / in wherein, A means a peel force of a pressure-sensitive adhesive layer formed by curing the pressure-sensitive adhesive composition on a fluorine-based release film as measured at a peel rate of 0.3 m/min and a peel angle of 180 degrees wherein the peel force is measured as set forth in the description. a first pressure-sensitive adhesive comprising a first silicone gum and having a peel force on a glass substrate, as measured at a peel rate of 0.3 m/min and a peel angle of 180 degrees, of 0.00386 N/mm (10 gf/in) or less; and a second pressure-sensitive adhesive comprising a second silicone gum and a second MQ resin and having a peel force on a glass substrate, as measured at a peel rate of 0.3 m/min and a peel angle of 180 degrees, of 0.0772 N/mm (200 gf/in) to 0.1544 N/mm (400 gf/in), wherein said first pressure-sensitive adhesive is contained in an amount of 5 wt% to 50 wt% relative to the total solid content of the composition and the second pressure-sensitive adhesive in included in the pressure-sensitive adhesive composition in an amount from 50 wt% to 95 wt%, relative to the total solid content of the composition, and the composition satisfies Equation 1 below: A < 0.00772 N / mm 20 gf / in wherein, A means a peel force of a pressure-sensitive adhesive layer formed by curing the pressure-sensitive adhesive composition on a fluorine-based release film as measured at a peel rate of 0.3 m/min and a peel angle of 180 degrees wherein the peel force is measured as set forth in the description.