mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: a pressurized cabin of a vehicle that includes a waste region , wherein the waste region is an area of the cabin that produces waste air unsuitable for recirculation; a manifold configured to receive cabin discharge air from the pressurized cabin, wherein the cabin discharge air includes the waste air from the waste region of the cabin; an auxiliary power unit, APU, fluidically coupled to the manifold and positioned in an unpressurized region outside the cabin, wherein the APU is configured to: draw cabin discharge air from the manifold; and provide power to non-propulsive components of the vehicle; an APU throttle valve configured to control flow of cabin discharge air from the manifold to the APU; and a control system comprising: a manifold pressure measurement device configured to measure a pressure in the manifold; and a controller configured to determine, based on a pressure measurement of the manifold and a pressure setpoint for the manifold representing a predetermined flow of cabin discharge air from the cabin to the manifold, a control signal for at least one manifold inlet, wherein the at least one manifold inlet is configured to control flow of cabin discharge air from the cabin to the manifold. a pressurized cabin of a vehicle that includes a waste region , wherein the waste region is an area of the cabin that produces waste air unsuitable for recirculation; a manifold configured to receive cabin discharge air from the pressurized cabin, wherein the cabin discharge air includes the waste air from the waste region of the cabin; an auxiliary power unit, APU, fluidically coupled to the manifold and positioned in an unpressurized region outside the cabin, wherein the APU is configured to: draw cabin discharge air from the manifold; and provide power to non-propulsive components of the vehicle; draw cabin discharge air from the manifold; and provide power to non-propulsive components of the vehicle; an APU throttle valve configured to control flow of cabin discharge air from the manifold to the APU; and a control system comprising: a manifold pressure measurement device configured to measure a pressure in the manifold; and a controller configured to determine, based on a pressure measurement of the manifold and a pressure setpoint for the manifold representing a predetermined flow of cabin discharge air from the cabin to the manifold, a control signal for at least one manifold inlet, wherein the at least one manifold inlet is configured to control flow of cabin discharge air from the cabin to the manifold. a manifold pressure measurement device configured to measure a pressure in the manifold; and a controller configured to determine, based on a pressure measurement of the manifold and a pressure setpoint for the manifold representing a predetermined flow of cabin discharge air from the cabin to the manifold, a control signal for at least one manifold inlet, wherein the at least one manifold inlet is configured to control flow of cabin discharge air from the cabin to the manifold.
Method for transmitting data via a serial communications bus in which the data is transmitted with a transmission frame, wherein the transmission frame has at least one arbitration field (AF) and one data field (DF), wherein the arbitration field (AF) serves to regulate the bus access according to the CSMA-CR method, corresponding to carrier sense multiple access with collision resolution, by prioritizing the messages with the aid of an identifier, wherein a low bit rate is configured for the arbitration phase, and an increased bit rate is configured for the transmission of the data in the data field (DF), wherein the data field (DF), within a fixed upper limit that is greater than 64 bytes, has a variable length for an arbitrary number of bytes, characterized in that an end field (EF) is also provided in the transmission frame, and at least one end-of-frame code is entered in the end field (EF), wherein the end-of-frame code has a length of 11 bits, in order to force an infringement of a new bit-stuffing rule by sending the end-of-frame code so that participants that were not correctly synchronized recognize this fact. wherein the transmission frame has at least one arbitration field (AF) and one data field (DF), wherein the arbitration field (AF) serves to regulate the bus access according to the CSMA-CR method, corresponding to carrier sense multiple access with collision resolution, by prioritizing the messages with the aid of an identifier, wherein a low bit rate is configured for the arbitration phase, and an increased bit rate is configured for the transmission of the data in the data field (DF), wherein the data field (DF), within a fixed upper limit that is greater than 64 bytes, has a variable length for an arbitrary number of bytes, characterized in that an end field (EF) is also provided in the transmission frame, and at least one end-of-frame code is entered in the end field (EF), wherein the end-of-frame code has a length of 11 bits, in order to force an infringement of a new bit-stuffing rule by sending the end-of-frame code so that participants that were not correctly synchronized recognize this fact.
A communication and powering system (10; 10'), especially a medical communication and powering system comprising - at least one communication module with a communication transmitter, which is configured and arranged to transmit and send communication signals, - at least one charging and/or powering module with an energy charging and/or powering transmitter, which is configured and arranged to provide and/or transmit charging and/or powering energy, - at least one receiver (28; 28') being a receiver (28; 28') for communication signals and energy, wherein the receiver (28; 28') is configured to be switched into a first status for receiving communication signals provided by the communication module and a second status for receiving energy provided by the charging and/or powering module , wherein the first status and the second status are alternating, wherein the receiver (28; 28') comprises an antenna (30; 30'), especially an antenna coil, and a communication and charging diplexer (32; 32'), wherein the diplexer (32; 32') comprises a switch to ground (G) and at least one capacitor (C2; C3') connected to the antenna (30; 30'), the antenna (30; 30') being an inductor (L) and the capacitor (C2, C3') being positioned between the antenna (30; 30') and the switch to ground (G), and wherein the antenna (30; 30') and the capacitor (C2, C3') form a resonant tank. - at least one communication module with a communication transmitter, which is configured and arranged to transmit and send communication signals, - at least one charging and/or powering module with an energy charging and/or powering transmitter, which is configured and arranged to provide and/or transmit charging and/or powering energy, - at least one receiver (28; 28') being a receiver (28; 28') for communication signals and energy, wherein the receiver (28; 28') is configured to be switched into a first status for receiving communication signals provided by the communication module and a second status for receiving energy provided by the charging and/or powering module , wherein the first status and the second status are alternating, wherein the receiver (28; 28') comprises an antenna (30; 30'), especially an antenna coil, and a communication and charging diplexer (32; 32'), wherein the diplexer (32; 32') comprises a switch to ground (G) and at least one capacitor (C2; C3') connected to the antenna (30; 30'), the antenna (30; 30') being an inductor (L) and the capacitor (C2, C3') being positioned between the antenna (30; 30') and the switch to ground (G), and wherein the antenna (30; 30') and the capacitor (C2, C3') form a resonant tank.
A package comprising: a connector including: a pair of a first fitting object and a second fitting object ; a connection portion connecting said first fitting object and said second fitting object so that said first fitting object protrudes more from the connection portion to a fitting side than said second fitting object ; a first opening and a second opening formed respectively in said first fitting object and said second fitting object and opened to the fitting side in a same direction; and a filler located inside of an opening in at least one of said first fitting object and said second fitting object ; characterized in that the package further comprises a package body including a base which contains said connector , said package body having a first surface facing said first opening and a second surface facing said second opening and said connection portion , wherein said first surface is formed deeper than said second surface in said base relative to a direction in which said connector is contained with respect to said base ; wherein an end surface of said second fitting object on the fitting side and a surface of said connection portion form a common first plane (S1); and wherein said base has a support surface that supports said first plane (S1). a pair of a first fitting object and a second fitting object ; a connection portion connecting said first fitting object and said second fitting object so that said first fitting object protrudes more from the connection portion to a fitting side than said second fitting object ; a first opening and a second opening formed respectively in said first fitting object and said second fitting object and opened to the fitting side in a same direction; and a filler located inside of an opening in at least one of said first fitting object and said second fitting object ; characterized in that the package further comprises a package body including a base which contains said connector , said package body having a first surface facing said first opening and a second surface facing said second opening and said connection portion , wherein said first surface is formed deeper than said second surface in said base relative to a direction in which said connector is contained with respect to said base ; wherein an end surface of said second fitting object on the fitting side and a surface of said connection portion form a common first plane (S1); and wherein said base has a support surface that supports said first plane (S1). a package body including a base which contains said connector , said package body having a first surface facing said first opening and a second surface facing said second opening and said connection portion , wherein said first surface is formed deeper than said second surface in said base relative to a direction in which said connector is contained with respect to said base ; wherein an end surface of said second fitting object on the fitting side and a surface of said connection portion form a common first plane (S1); and wherein said base has a support surface that supports said first plane (S1).
A suppressor for a firearm, comprising: a casing that defines a longitudinal axis ; a first baffle located in said casing , wherein said first baffle has an upstream surface , a downstream surface , and a frustoconical surface between said upstream and downstream surfaces , and said first baffle defines a fluid pathway through said upstream, downstream, and frustoconical surfaces along said longitudinal axis ; and an annular chamber between said frustoconical surface of said first baffle and said casing ; characterized in that said suppressor further comprises: a first contoured wall that extends axially upstream a first height from said upstream surface of said first baffle , wherein said first contoured wall defines a perimeter around a first damping well in said upstream surface ; a second contoured wall that extends axially upstream a second height from said upstream surface of said first baffle , wherein said second contoured wall defines a perimeter around a second damping well in said upstream surface ; and wherein said first height of said first contoured wall is larger than said second height of said second contoured wall . a casing that defines a longitudinal axis ; a first baffle located in said casing , wherein said first baffle has an upstream surface , a downstream surface , and a frustoconical surface between said upstream and downstream surfaces , and said first baffle defines a fluid pathway through said upstream, downstream, and frustoconical surfaces along said longitudinal axis ; and an annular chamber between said frustoconical surface of said first baffle and said casing ; characterized in that said suppressor further comprises: a first contoured wall that extends axially upstream a first height from said upstream surface of said first baffle , wherein said first contoured wall defines a perimeter around a first damping well in said upstream surface ; a second contoured wall that extends axially upstream a second height from said upstream surface of said first baffle , wherein said second contoured wall defines a perimeter around a second damping well in said upstream surface ; and wherein said first height of said first contoured wall is larger than said second height of said second contoured wall . a first contoured wall that extends axially upstream a first height from said upstream surface of said first baffle , wherein said first contoured wall defines a perimeter around a first damping well in said upstream surface ; a second contoured wall that extends axially upstream a second height from said upstream surface of said first baffle , wherein said second contoured wall defines a perimeter around a second damping well in said upstream surface ; and wherein said first height of said first contoured wall is larger than said second height of said second contoured wall .
A one piece custom made dental device for holding multiple types of prosthesis comprising a mono block having a plurality of supracrestally integrated dental implants without any joint, wherein the one piece custom made dental device further comprises abutments , supracrestally connecting bars and pontics ; the one piece custom made dental device wherein each implant of the plurality of dental implants comprises: a wide base (4.1); an inverted thread (4.2); a vertical thread (4.3); implant body portion (4.4), and, a crestal supporting thread (4.5). a wide base (4.1); an inverted thread (4.2); a vertical thread (4.3); implant body portion (4.4), and, a crestal supporting thread (4.5).
Asphalt product comprising a synthetic or bituminous hydrocarbon binder and at least one inorganic filler, characterised in that it also comprises 0.02 to 5 wt. %, preferably 0.2 to 1.5 wt. % relative to the weight of said bituminous binder, of a thermoplastic polymer compatible with the hydrocarbon binder, said polymer being selected from: - A polymer having at least one terminal carboxylic acid, the polymer being a polyester, a polyamide, a poly(ester-amide), a polyether functionalised at the carboxylic acid chain end, or a polydiene functionalised at the carboxylic acid chain end when said thermoplastic polymer comprises more than one carboxylic acid function, with at least 20 carbon atoms separating the carboxylic acid functions; - A polymer having at least one phosphate or phosphonate function; - And mixtures thereof. - A polymer having at least one terminal carboxylic acid, the polymer being a polyester, a polyamide, a poly(ester-amide), a polyether functionalised at the carboxylic acid chain end, or a polydiene functionalised at the carboxylic acid chain end when said thermoplastic polymer comprises more than one carboxylic acid function, with at least 20 carbon atoms separating the carboxylic acid functions; - A polymer having at least one phosphate or phosphonate function; - And mixtures thereof.
A method for a base station to control transmission power of a terminal, comprising: measuring a signal to interference ratio, SIR, of the terminal; determining whether a transmission period is an active period in which data is transmitted or an inactive period otherwise based on a quantity of resource which is allocated to the terminal in the transmission period; calculating an average data transmission rate of the terminal in the active period when the transmission period is the inactive period; and determining a target SIR in the inactive period based on an offset which is identified based on the average data transmission rate of the terminal, the target SIR being decreased based on the offset. measuring a signal to interference ratio, SIR, of the terminal; determining whether a transmission period is an active period in which data is transmitted or an inactive period otherwise based on a quantity of resource which is allocated to the terminal in the transmission period; calculating an average data transmission rate of the terminal in the active period when the transmission period is the inactive period; and determining a target SIR in the inactive period based on an offset which is identified based on the average data transmission rate of the terminal, the target SIR being decreased based on the offset.
An apparatus for in-phase/quadrature, I/Q, imbalance correction in a transceiver, comprising: an I/Q imbalance correction circuit configured to modify I/Q data for transmission using correction coefficients to generate corrected I/Q data, wherein the I/Q imbalance correction circuit is configured to generate the corrected I/Q data based on the I/Q data and a complex conjugate of the I/Q data at a mirror image frequency; a correction coefficient generation circuit configured to generate the correction coefficients for the I/Q imbalance correction circuit based on the I/Q data and reference data using an adaptation algorithm; a digital-to-analog converter, DAC, configured to convert the corrected I/Q data to an analog transmit signal; a first mixer circuit for up-converting the analog transmit signal using a first local oscillator signal ; and an observation receiver configured to receive the up-converted analog transmit signal as a feedback signal and generate the reference data based on the feedback signal, wherein the observation receiver includes a second mixer circuit configured to down-convert the feedback signal using a second local oscillator signal to a zero intermediate frequency, wherein the observation receiver is configured to generate the reference data by down-converting the feedback signal using the second local oscillator signal with different phase shifts at different time instants. an I/Q imbalance correction circuit configured to modify I/Q data for transmission using correction coefficients to generate corrected I/Q data, wherein the I/Q imbalance correction circuit is configured to generate the corrected I/Q data based on the I/Q data and a complex conjugate of the I/Q data at a mirror image frequency; a correction coefficient generation circuit configured to generate the correction coefficients for the I/Q imbalance correction circuit based on the I/Q data and reference data using an adaptation algorithm; a digital-to-analog converter, DAC, configured to convert the corrected I/Q data to an analog transmit signal; a first mixer circuit for up-converting the analog transmit signal using a first local oscillator signal ; and an observation receiver configured to receive the up-converted analog transmit signal as a feedback signal and generate the reference data based on the feedback signal, wherein the observation receiver includes a second mixer circuit configured to down-convert the feedback signal using a second local oscillator signal to a zero intermediate frequency, wherein the observation receiver is configured to generate the reference data by down-converting the feedback signal using the second local oscillator signal with different phase shifts at different time instants.
A rotatable mixing member suitable for cream-cooking machines and which is adapted to be housed in axially rotatable manner inside the processing tank of a cream-cooking machine for production of pastry cream and the like, in order to mix the pastry cream or similar and to simultaneously remove the layer of pastry cream or similar that sticks to/forms on the inner surface of the processing tank ; the rotatable mixing member comprising a scraper tool which is adapted to be driven into rotation inside the processing tank around a given rotation axis (A, R), and is structured so as to scrape the inner surface of the processing tank to remove said layer of pastry cream or similar; the rotatable mixing member being characterized by additionally comprising a mixer tool which is discrete and distinct from said scraper tool , is fitted/engaged in detachable manner directly onto the scraper tool in order to rotate together with the scraper tool , and is structured so as to continuously mix the material present in the processing tank ; the scraper tool comprising: a first hub which is coaxial with said rotation axis (R), and is adapted to be fitted in angularly rigid and manually removable manner onto a supporting shaft that protrudes in cantilever manner inside the processing tank ; a plurality of supporting arms which extend in cantilever manner from said first hub angularly staggered around said rotation axis (R), up to almost reach the inner surface of the processing tank ; and a series of scraping spatulas , which are fixed on the supporting arms so as to scrape on the inner surface of the processing tank when said first hub rotates inside the processing tank together with the supporting shaft ; the mixing tool comprising: a second hub which is coaxial to said rotation axis (R), and is adapted to be fitted in angularly rigid and manually removable manner onto the first hub of the scraper tool to rotate together with the scraper tool ; and a plurality of plate-like blades which extend in cantilever manner from said second hub and are angularly staggered around the rotation axis (R).