mhurhangee/patent-ind-claim-en huggingface dataset:
Marine transmission having a main drive shaft which is connectable to a main drive engine, having at least one first multiplate clutch and one second multiplate clutch , having at least one first pinion shaft and one second pinion shaft , and having an output shaft , wherein a drive power can be transmitted from the main drive shaft via the first multiplate clutch and the first pinion shaft to the output shaft , wherein the first multiplate clutch , the first pinion shaft and the output shaft are mounted in a main housing of the marine transmission , wherein the main drive shaft is arranged parallel to the first pinion shaft and is mounted in a secondary housing of the marine transmission , wherein the first multiplate clutch and the second multiplate clutch and also the first pinion shaft and the second pinion shaft interact with the main drive shaft and the output shaft such that, for the selection of the direction of rotation of the output shaft , the drive power can be transmitted selectively via the closed first multiplate clutch to the first pinion shaft or via the closed second multiplate clutch to the second pinion shaft , wherein a first outer plate carrier of the first multiplate clutch has a first external toothing which meshes with a drive pinion on the main drive shaft , wherein a first inner plate carrier of the first multiplate clutch is connected rotationally conjointly to the first pinion shaft , wherein a second outer plate carrier of the second multiplate clutch has a second external toothing which permanently meshes with the first external toothing of the first outer plate carrier , wherein a second inner plate carrier of the second multiplate clutch is connected rotationally conjointly to the second pinion shaft , wherein the first pinion shaft and the second pinion shaft are arranged parallel with respect to one another, wherein a first output pinion is arranged rotationally conjointly on the first pinion shaft and a second output pinion is arranged rotationally conjointly on the second pinion shaft , and wherein the first output pinion and the second output pinion mesh with an output toothed gear arranged rotationally conjointly on the output shaft , characterized in that at least one secondary drive or secondary output is arranged coaxially or parallel with respect to the main drive shaft in the secondary housing .
A multiway valve for a sanitary fitting, comprising at least: - a housing with at least one inlet , at least one first outlet and at least one second outlet ; - at least one first membrane valve for controlling the at least one first outlet , wherein the at least one first membrane valve comprises a first membrane and a first counterpressure chamber connected to the at least one inlet ; and - at least one second membrane valve for controlling the at least one second outlet , wherein the at least one second membrane valve has a second membrane and a second counterpressure chamber connected to the at least one inlet ; - a control for controlling the at least one first membrane valve and the at least one second membrane valve , wherein the control has at least one first control channel with a first control valve and at least one second control channel with a second control valve , and wherein the at least one first control channel , by bypassing the first membrane , connects the first counterpressure chamber of the at least one first membrane valve to the at least one first outlet , and the at least one second control channel , by bypassing the second membrane , connects the second counterpressure chamber of the at least one second membrane valve to the at least one second outlet ; characterized in that the multiway valve comprises a coupling for coupling the first membrane to the second membrane such that a closing movement of the first membrane effects an opening movement of the second membrane . - a housing with at least one inlet , at least one first outlet and at least one second outlet ; - at least one first membrane valve for controlling the at least one first outlet , wherein the at least one first membrane valve comprises a first membrane and a first counterpressure chamber connected to the at least one inlet ; and - at least one second membrane valve for controlling the at least one second outlet , wherein the at least one second membrane valve has a second membrane and a second counterpressure chamber connected to the at least one inlet ; - a control for controlling the at least one first membrane valve and the at least one second membrane valve , wherein the control has at least one first control channel with a first control valve and at least one second control channel with a second control valve , and wherein the at least one first control channel , by bypassing the first membrane , connects the first counterpressure chamber of the at least one first membrane valve to the at least one first outlet , and the at least one second control channel , by bypassing the second membrane , connects the second counterpressure chamber of the at least one second membrane valve to the at least one second outlet ; characterized in that the multiway valve comprises a coupling for coupling the first membrane to the second membrane such that a closing movement of the first membrane effects an opening movement of the second membrane .
Method for noise reduction in an audio signal , wherein the audio signal is split into a plurality of frequency bands (1a-f), wherein for a plurality of prediction instants of time (t1, t2), a respective signal component (2t1, 2t2) subsequent to the prediction instant (t1, t2) is predicted on the basis of signal components (2n1, 2n2) of the audio signal prior to the prediction instant of time (t1, t2), wherein the prediction of a signal component (2t1, 2t2) subsequent to the respective prediction instant (t1, t2) on the basis of signal components (2n1, 2n2) of the audio signal prior to the prediction instant of time (t1, t2) is carried out in a frequency band-wise manner, wherein a predicted audio signal (8, 8a-c) is derived from the signal components (2t1, 2t2) subsequent to a respective prediction instant of time (t1, t2), wherein a noise-suppressed audio signal (10, 10a-f) is generated on the basis of the predicted audio signal (8, 8a-c), wherein, for generating the noise-suppressed audio signal (10, 10a-f), the predicted audio signal (8a-c) is mixed, frequency band-wise, with signal components of the audio signal , and wherein the mixing ration is determined in dependence on contributions from harmonic components and/or of contributions from uncorrelated components in the respective frequency band (1a-c). wherein the audio signal is split into a plurality of frequency bands (1a-f), wherein for a plurality of prediction instants of time (t1, t2), a respective signal component (2t1, 2t2) subsequent to the prediction instant (t1, t2) is predicted on the basis of signal components (2n1, 2n2) of the audio signal prior to the prediction instant of time (t1, t2), wherein the prediction of a signal component (2t1, 2t2) subsequent to the respective prediction instant (t1, t2) on the basis of signal components (2n1, 2n2) of the audio signal prior to the prediction instant of time (t1, t2) is carried out in a frequency band-wise manner, wherein a predicted audio signal (8, 8a-c) is derived from the signal components (2t1, 2t2) subsequent to a respective prediction instant of time (t1, t2), wherein a noise-suppressed audio signal (10, 10a-f) is generated on the basis of the predicted audio signal (8, 8a-c), wherein, for generating the noise-suppressed audio signal (10, 10a-f), the predicted audio signal (8a-c) is mixed, frequency band-wise, with signal components of the audio signal , and wherein the mixing ration is determined in dependence on contributions from harmonic components and/or of contributions from uncorrelated components in the respective frequency band (1a-c).
A method for determining wind speed components by way of a LiDAR sensor , said LiDAR sensor being oriented substantially vertically in order to carry out the measurements in at least one substantially horizontal measurement plane (PM), wherein the following steps are implemented: a) Acquiring measurement signals from said LiDAR sensor in said at least one measurement plane (PM); b) Determining an approximation (APP) of the wind speed components in said at least one measurement plane (PM) by way of a geometric reconstruction of said wind speed components based on said acquired measurement signals; c) Determining an average speed and a standard deviation of the wind (MOY) in said at least one measurement plane (PM) by way of said approximated wind speed components; d) Constructing a wind signal model (MOD) using the sum of two first-order filters, which is the sum of an integrator and of a low-pass filter, said wind signal model being dependent on two parameters (a, b) which are ; e) Determining said two parameters (a, b) of said wind signal model (MOD) by way of said determined standard deviation and the determined average wind speed; f) Filtering said acquired measurement signals by way of a non-stationary Kalman filter (KAL), said wind signal model and said two determined parameters; and g) Determining the wind speed components in said at least one measurement plane, by way of a geometric reconstruction (REC) of said wind speed components based on said filtered measurement signals. a) Acquiring measurement signals from said LiDAR sensor in said at least one measurement plane (PM); b) Determining an approximation (APP) of the wind speed components in said at least one measurement plane (PM) by way of a geometric reconstruction of said wind speed components based on said acquired measurement signals; c) Determining an average speed and a standard deviation of the wind (MOY) in said at least one measurement plane (PM) by way of said approximated wind speed components; d) Constructing a wind signal model (MOD) using the sum of two first-order filters, which is the sum of an integrator and of a low-pass filter, said wind signal model being dependent on two parameters (a, b) which are ; e) Determining said two parameters (a, b) of said wind signal model (MOD) by way of said determined standard deviation and the determined average wind speed; f) Filtering said acquired measurement signals by way of a non-stationary Kalman filter (KAL), said wind signal model and said two determined parameters; and g) Determining the wind speed components in said at least one measurement plane, by way of a geometric reconstruction (REC) of said wind speed components based on said filtered measurement signals.
Method for the vibration analysis of an engine, characterised in that it comprises the following steps executed by processing means: - spectral acquisition of vibration signals relating to the engine in order to form at least one spectrogram that represents an operating state of said engine, - selection of at least one zone of interest (Z1) in said at least one spectrogram, - construction for each zone of interest (Z1) of a vector of interest that represents said zone of interest by projecting said zone of interest onto an underlying representation space, - construction of a set of comparison vectors that is representative of a set of corresponding comparison zones with said zone of interest by projecting each one of said comparison zones onto said representation space, said set of comparison zones belonging to annotated spectrograms recorded in a reference database, - calculation of a similarity score between said vector of interest and each one of said comparison vectors for determining a subset of comparison vectors that have a similarity score that exceeds a predetermined level, - selection of a subset of comparison zones (C1-C6) associated to said subset of comparison vectors, said subset of comparison zones (C1-C6) having vibration behaviours similar to those of said zone of interest, and - recovery of said subset of comparison zones (C1-C6) and annotations (n1-n6) associated with said subset of comparison zones. - spectral acquisition of vibration signals relating to the engine in order to form at least one spectrogram that represents an operating state of said engine, - selection of at least one zone of interest (Z1) in said at least one spectrogram, - construction for each zone of interest (Z1) of a vector of interest that represents said zone of interest by projecting said zone of interest onto an underlying representation space, - construction of a set of comparison vectors that is representative of a set of corresponding comparison zones with said zone of interest by projecting each one of said comparison zones onto said representation space, said set of comparison zones belonging to annotated spectrograms recorded in a reference database, - calculation of a similarity score between said vector of interest and each one of said comparison vectors for determining a subset of comparison vectors that have a similarity score that exceeds a predetermined level, - selection of a subset of comparison zones (C1-C6) associated to said subset of comparison vectors, said subset of comparison zones (C1-C6) having vibration behaviours similar to those of said zone of interest, and - recovery of said subset of comparison zones (C1-C6) and annotations (n1-n6) associated with said subset of comparison zones.
An apparatus comprising an ultrasound device configured to collect ultrasound data and compound multilines of the ultrasound data, wherein the ultrasound device is configured, when compounding the multilines of the ultrasound data, to: collect N first multilines of the ultrasound data following a first ultrasound transmit event; collect N second multilines of the ultrasound data following a second ultrasound transmit event that is subsequent to the first ultrasound transmit event; and compound N-p of the first multilines and N-p of the second multilines, wherein p is a pitch factor of the first and second multilines of ultrasound data representing the offset in multilines between the first multiline of successive ultrasound transmit events and is less than N , wherein the ultrasound device is further configured to wirelessly offload , following the first ultrasound transmit event, p multilines of the first multilines. collect N first multilines of the ultrasound data following a first ultrasound transmit event; collect N second multilines of the ultrasound data following a second ultrasound transmit event that is subsequent to the first ultrasound transmit event; and compound N-p of the first multilines and N-p of the second multilines, wherein p is a pitch factor of the first and second multilines of ultrasound data representing the offset in multilines between the first multiline of successive ultrasound transmit events and is less than N , wherein the ultrasound device is further configured to wirelessly offload , following the first ultrasound transmit event, p multilines of the first multilines.
A method of detecting circumstances for a user of a mobile device , the method comprising: executing by one or more processors of the mobile device , an application program to be used by a user of the mobile device , the application program comprising executable code for performing a function, task or activity for the user, the application program further comprising a software development kit comprising an observation engine, receiving by the mobile device one or more directives indicating that a specified function is to be invoked upon detection of specific circumstances relating to actions of a user, the observation engine processing at least one of: sensor output from one or more sensors or at least one operating system property of an operating system of the mobile device ; determining one or more observations from the at least one of the sensor output or the at least one operating system property; determining whether one or more specified circumstances are detected within the one or more observations; storing , in a memory , a log of a detection of the one or more specified circumstances; and indicating to the application program that the application program is to invoke , based on the one or more directives relating to the specified circumstances, the specified function of the mobile device , at least partially in response to detection of the one or more specified circumstances. executing by one or more processors of the mobile device , an application program to be used by a user of the mobile device , the application program comprising executable code for performing a function, task or activity for the user, the application program further comprising a software development kit comprising an observation engine, receiving by the mobile device one or more directives indicating that a specified function is to be invoked upon detection of specific circumstances relating to actions of a user, the observation engine processing at least one of: sensor output from one or more sensors or at least one operating system property of an operating system of the mobile device ; determining one or more observations from the at least one of the sensor output or the at least one operating system property; determining whether one or more specified circumstances are detected within the one or more observations; storing , in a memory , a log of a detection of the one or more specified circumstances; and indicating to the application program that the application program is to invoke , based on the one or more directives relating to the specified circumstances, the specified function of the mobile device , at least partially in response to detection of the one or more specified circumstances.
A heat exchanger , comprising: a first rotary heat exchanger; a second rotary heat exchanger configured to rotate in the same direction as the first rotary heat exchanger; a fluid circuit extending through at least a portion of the first rotary heat exchanger and at least a portion of the second rotary heat exchanger and configured to permit passage of a working fluid between the first and second rotary heat exchangers; and a compressor disposed along the fluid circuit and configured to rotate along with the first rotary heat exchanger and in the same direction as the first rotary heat exchanger characterized in that the compressor comprises a single-screw compressor. a first rotary heat exchanger; a second rotary heat exchanger configured to rotate in the same direction as the first rotary heat exchanger; a fluid circuit extending through at least a portion of the first rotary heat exchanger and at least a portion of the second rotary heat exchanger and configured to permit passage of a working fluid between the first and second rotary heat exchangers; and a compressor disposed along the fluid circuit and configured to rotate along with the first rotary heat exchanger and in the same direction as the first rotary heat exchanger characterized in that the compressor comprises a single-screw compressor.
A curable white silicone composition for use in making a reflective material for optical semiconductor device, comprising at least (A) an organopolysiloxane having at least 2 alkenyl groups per molecule, (B) a cerium-containing organopolysiloxane, (C) a white pigment, and (D) a curing catalyst. (A) an organopolysiloxane having at least 2 alkenyl groups per molecule, (B) a cerium-containing organopolysiloxane, (C) a white pigment, and (D) a curing catalyst.
A solid-state power controller, SSPC, system with a built-in-test circuit, comprising a SSPC field-effect transistor, FET, switch ; a current sense resistor electrically connected to the SSPC FET switch in series; a resistor electrically connected to the current sense resistor in series; and a switch electrically connected to the resistor in series; wherein the switch is operative to test the current sense resistor while the SSPC system is operating a load; and further comprising: a load output electrically connected between the current sense resistor and the resistor, wherein the current sense resistor is connected in series between the SSPC FET switch and the load output .
A computer implemented method comprising: generating a template code of a virtual software platform, wherein the generated template code describes functions of one or more components of software according to received design information of a software platform, the software platform being a set of components including common elements and variable elements, wherein a variety of software products is formed by elements selectively combined; and generating a build script of the virtual software platform, the build script having configuration variables according to a type of the software, building the generated template code, and then changing configuration values of the configuration variables for combination of the components. generating a template code of a virtual software platform, wherein the generated template code describes functions of one or more components of software according to received design information of a software platform, the software platform being a set of components including common elements and variable elements, wherein a variety of software products is formed by elements selectively combined; and generating a build script of the virtual software platform, the build script having configuration variables according to a type of the software, building the generated template code, and then changing configuration values of the configuration variables for combination of the components.
A thermoplastic roofing membrane comprising: i. at least one layer including a thermoplastic polyolefin and a functionalized polyolefin copolymer, wherein the functionalized polyolefin copolymer is a maleated copolymer of ethylene and an α-olefin, wherein said layer further includes a mineral filler. i. at least one layer including a thermoplastic polyolefin and a functionalized polyolefin copolymer, wherein the functionalized polyolefin copolymer is a maleated copolymer of ethylene and an α-olefin,
Process for decontaminating a biological material from viral, prion and/or bacterial contaminants, comprising centrifuging a three-layer liquid system comprising: (a) an upper layer comprising an aqueous solution of the biological material to decontaminate; (b) an intermediate layer comprising one or more organic solvents; (c) a lower layer comprising an inactivating solution for said contaminants, where said layers have different densities, in the order: (a) <(b) <(c), and characterized in that the layer (b) is immiscible with the layer (a). (a) an upper layer comprising an aqueous solution of the biological material to decontaminate; (b) an intermediate layer comprising one or more organic solvents; (c) a lower layer comprising an inactivating solution for said contaminants,
A mutant polypeptide having creatine amidinohydrolase activity, wherein the polypeptide is selected from: a. a polypeptide comprising an amino acid sequence having at least 80% identity to SEQ ID No.: 2; wherein amino acid residue cysteine at position 175 is substituted with alanine and amino acid residue cysteine at position 299 is substituted with alanine, or b. a polypeptide having an amino acid sequence selected from among SEQ ID No. 3; SEQ ID No. 7; SEQ ID No. 11; SEQ ID No. 15; SEQ ID No. 19; SEQ ID No. 23; SEQ ID No. 27; SEQ ID No. 31; SEQ ID No. 35; SEQ ID No. 39; SEQ ID No. 43; SEQ ID No. 47. a. a polypeptide comprising an amino acid sequence having at least 80% identity to SEQ ID No.: 2; wherein amino acid residue cysteine at position 175 is substituted with alanine and amino acid residue cysteine at position 299 is substituted with alanine, or b. a polypeptide having an amino acid sequence selected from among SEQ ID No. 3; SEQ ID No. 7; SEQ ID No. 11; SEQ ID No. 15; SEQ ID No. 19; SEQ ID No. 23; SEQ ID No. 27; SEQ ID No. 31; SEQ ID No. 35; SEQ ID No. 39; SEQ ID No. 43; SEQ ID No. 47.