mhurhangee/patent-ind-claim-en huggingface dataset:
A method of proof-testing a radar level gauge system arranged to determine a filling level of a product in a tank, the method comprising the steps of: transmitting an electromagnetic transmit signal towards a surface of the product in the tank; receiving an electromagnetic reflection signal resulting from reflection of the transmit signal at the surface of the product; forming a measurement representation based on the transmit signal and the reflection signal, the measurement representation comprising surface echo information indicative of the filling level of the product; adding, to the measurement representation, proof test echo information indicative of a predefined proof test level corresponding to, or being higher than, a high level alarm limit of the radar level gauge system, resulting in a modified measurement representation; processing the modified measurement representation to determine a proof test level based on the modified measurement representation; and providing a signal indicative of a result of the processing. transmitting an electromagnetic transmit signal towards a surface of the product in the tank; receiving an electromagnetic reflection signal resulting from reflection of the transmit signal at the surface of the product; forming a measurement representation based on the transmit signal and the reflection signal, the measurement representation comprising surface echo information indicative of the filling level of the product; adding, to the measurement representation, proof test echo information indicative of a predefined proof test level corresponding to, or being higher than, a high level alarm limit of the radar level gauge system, resulting in a modified measurement representation; processing the modified measurement representation to determine a proof test level based on the modified measurement representation; and providing a signal indicative of a result of the processing.
Shifting apparatus comprising a shaft extending along an axis and at least one shifting feature , characterized in that each of said at least one shifting feature comprises: a multi-part pin having first and second parts arranged to rotate relative to each other that extend through respective slots extending along the shaft ; a drum arranged around the shaft and having channels extending along the length thereof in which the first and second parts of the multi-part pin are respectively received for enabling torque to be transferred to the drum when the shaft is rotated, the drum also defining a track at least partially around its outer surface; a biasing mechanism for urging the drum towards a rest position along the length of the shaft ; and a drive member selector member provided in operative relation to said track , wherein the drive member selector member can be controlled to selectively engage a drive member, for transferring torque thereto in use, by rotating the shaft . a multi-part pin having first and second parts arranged to rotate relative to each other that extend through respective slots extending along the shaft ; a drum arranged around the shaft and having channels extending along the length thereof in which the first and second parts of the multi-part pin are respectively received for enabling torque to be transferred to the drum when the shaft is rotated, the drum also defining a track at least partially around its outer surface; a biasing mechanism for urging the drum towards a rest position along the length of the shaft ; and a drive member selector member provided in operative relation to said track , wherein the drive member selector member can be controlled to selectively engage a drive member, for transferring torque thereto in use, by rotating the shaft .
A process for preparing adrenaline-containing double layered lipid vesicles, preferably liposomes, comprising the steps of: a) preparing a buffer solution with an acidic pH comprised between 2 and 6, preferably comprised between 2.4 and 3.0; b) adding a solution containing lipids to the buffer solution and maintaining under stirring until a vesicular dispersion is formed; c) sonicating the vesicular dispersion for a time comprised between 60 and 200 seconds, preferably between 100 and 150 seconds; d) adding at least one pharmaceutically acceptable antioxidant substance; e) adding a basic solution to the vesicular dispersion until reaching a pH of about 9, preferably comprised between 8 and 9, even more preferably comprised between 8.7 and 9.0; f) adding adrenaline and maintaining the dispersion under stirring for a time comprised between 5 and 15 hours, preferably between 10 and 13 hours; wherein steps a) - f) are performed in the order described. a) preparing a buffer solution with an acidic pH comprised between 2 and 6, preferably comprised between 2.4 and 3.0; b) adding a solution containing lipids to the buffer solution and maintaining under stirring until a vesicular dispersion is formed; c) sonicating the vesicular dispersion for a time comprised between 60 and 200 seconds, preferably between 100 and 150 seconds; d) adding at least one pharmaceutically acceptable antioxidant substance; e) adding a basic solution to the vesicular dispersion until reaching a pH of about 9, preferably comprised between 8 and 9, even more preferably comprised between 8.7 and 9.0; f) adding adrenaline and maintaining the dispersion under stirring for a time comprised between 5 and 15 hours, preferably between 10 and 13 hours;
A workflow engine tool comprising: a processor; and a computer-readable medium storing instructions that are operative when executed by the processor to: extract module definitions from a programming language script; extract execution flow information from the programming language script; generate , for a first workflow engine, modules from the extracted module definitions; generate , for the first workflow engine, edges for connecting the modules generated for the first workflow engine; connect the modules generated for the first workflow engine with the edges generated for the first workflow engine, based at least on the extracted execution flow information, to generate a first workflow pipeline for the first workflow engine; recognize a workflow-specific parameter; if the first workflow engine is supported, pass the workflow-specific parameter to the workflow engine; and if the first workflow engine is not supported, eliminate the workflow-specific parameter and not pass it. a processor; and a computer-readable medium storing instructions that are operative when executed by the processor to: extract module definitions from a programming language script; extract execution flow information from the programming language script; generate , for a first workflow engine, modules from the extracted module definitions; generate , for the first workflow engine, edges for connecting the modules generated for the first workflow engine; connect the modules generated for the first workflow engine with the edges generated for the first workflow engine, based at least on the extracted execution flow information, to generate a first workflow pipeline for the first workflow engine; recognize a workflow-specific parameter; if the first workflow engine is supported, pass the workflow-specific parameter to the workflow engine; and if the first workflow engine is not supported, eliminate the workflow-specific parameter and not pass it. extract module definitions from a programming language script; extract execution flow information from the programming language script; generate , for a first workflow engine, modules from the extracted module definitions; generate , for the first workflow engine, edges for connecting the modules generated for the first workflow engine; connect the modules generated for the first workflow engine with the edges generated for the first workflow engine, based at least on the extracted execution flow information, to generate a first workflow pipeline for the first workflow engine; recognize a workflow-specific parameter; if the first workflow engine is supported, pass the workflow-specific parameter to the workflow engine; and if the first workflow engine is not supported, eliminate the workflow-specific parameter and not pass it.
A method for wireless communication at a user equipment, UE, comprising: receiving , from a base station, an indication that the UE is to use both a closed-loop multiple-input multiple-output, MIMO, scheme and a transparent diversity scheme for transmissions of uplink data using a plurality of antenna ports that include a plurality of groups of antenna ports, antenna ports within each group of antenna ports being phase coherent with each other antenna port belonging to the group of antenna ports and being phase incoherent with the antenna ports belonging to at least one other group of antenna ports; generating , from the uplink data, a plurality of output signals corresponding to the plurality of antenna ports based at least in part on applying the closed-loop MIMO scheme for the plurality of groups of antenna ports and the transparent diversity scheme among antenna ports belonging to different groups of antenna ports; and transmitting the plurality of output signals using the plurality of antenna ports. receiving , from a base station, an indication that the UE is to use both a closed-loop multiple-input multiple-output, MIMO, scheme and a transparent diversity scheme for transmissions of uplink data using a plurality of antenna ports that include a plurality of groups of antenna ports, antenna ports within each group of antenna ports being phase coherent with each other antenna port belonging to the group of antenna ports and being phase incoherent with the antenna ports belonging to at least one other group of antenna ports; generating , from the uplink data, a plurality of output signals corresponding to the plurality of antenna ports based at least in part on applying the closed-loop MIMO scheme for the plurality of groups of antenna ports and the transparent diversity scheme among antenna ports belonging to different groups of antenna ports; and transmitting the plurality of output signals using the plurality of antenna ports.
A catheter balloon assembly comprising: an inflatable balloon having two opposed balloon taper portions connected to a balloon body portion therebetween and a balloon working length defined as the length of the balloon body portion of the balloon that is an approximate length between opposed balloon taper portions and an un-inflated diameter and a working diameter; a frangible cover covering the balloon body portion , the frangible cover being operable to rupture under an internal pressure at an intermediate diameter before the balloon opens to the working diameter, wherein the frangible cover is operable to control the balloon to open to the intermediate diameter that is less than the working diameter, the intermediate diameter being substantially uniform along the working length of the balloon ; and an outer cover covering the frangible cover , the outer covering operable to contain the frangible cover once the frangible cover ruptures. an inflatable balloon having two opposed balloon taper portions connected to a balloon body portion therebetween and a balloon working length defined as the length of the balloon body portion of the balloon that is an approximate length between opposed balloon taper portions and an un-inflated diameter and a working diameter; a frangible cover covering the balloon body portion , the frangible cover being operable to rupture under an internal pressure at an intermediate diameter before the balloon opens to the working diameter, wherein the frangible cover is operable to control the balloon to open to the intermediate diameter that is less than the working diameter, the intermediate diameter being substantially uniform along the working length of the balloon ; and an outer cover covering the frangible cover , the outer covering operable to contain the frangible cover once the frangible cover ruptures.
Method for securing a first part , which is provided with a locking oblong hole , to a second part , the method comprising passing a locking threaded rod through the locking oblong hole into the second part , characterized in that - the locking threaded rod is oversized with respect to the width of the locking oblong hole , so that the locking threaded rod widens the locking oblong hole as it is passed through the locking oblong hole , thereby creating an undercut global width maximum within the locking oblong hole , in which the locking threaded rod correspondingly engages. - the locking threaded rod is oversized with respect to the width of the locking oblong hole , so that the locking threaded rod widens the locking oblong hole as it is passed through the locking oblong hole , thereby creating an undercut global width maximum within the locking oblong hole , in which the locking threaded rod correspondingly engages.
A heat-producing fixing belt of a cylindrical shape comprising a heat-producing layer (24a3), an elastic layer (24a5), and a releasing layer (24a7) in this sequential order from the inner side, wherein: the heat-producing layer (24a3) contains a polyimide resin (24a32), and a pair of electrodes (24a1, 24a2) to supply power to the heat-producing layer (24a3) are provided on both ends of the cylindrical shape, characterized in that the heat-producing layer (24a3) further contains fabric (24a31) containing carbon fiber, the pair of electrodes(24a1, 24a2) makes contact with the fabric (24a31) containing carbon fiber, the size of the carbon fiber being 66 tex to 800 tex and the fabric (24a31) containing carbon fiber being textile having a warp density and a woof density of 7.5 yarns/25 mm to 22.5 yarns/25 mm. the heat-producing layer (24a3) contains a polyimide resin (24a32), and a pair of electrodes (24a1, 24a2) to supply power to the heat-producing layer (24a3) are provided on both ends of the cylindrical shape, characterized in that the heat-producing layer (24a3) further contains fabric (24a31) containing carbon fiber, the pair of electrodes(24a1, 24a2) makes contact with the fabric (24a31) containing carbon fiber, the size of the carbon fiber being 66 tex to 800 tex and the fabric (24a31) containing carbon fiber being textile having a warp density and a woof density of 7.5 yarns/25 mm to 22.5 yarns/25 mm.
A rotorcraft with at least one main rotor and a fuselage , comprising: a tail boom connected to the fuselage , the tail boom extending from the fuselage toward a duct-type portion ; a shroud provided at the duct-type portion and forming a transverse duct ; at least one ducted tail rotor rotatably arranged in the transverse duct , wherein the at least one ducted tail rotor comprises a plurality of rotor blades mounted to a rotatable rotor hub ; and a stator with a gearbox fairing mounted to the shroud for supporting the rotatable rotor hub in the transverse duct , wherein the stator comprises at least one rotatable stator blade connecting the gearbox fairing to the shroud . a tail boom connected to the fuselage , the tail boom extending from the fuselage toward a duct-type portion ; a shroud provided at the duct-type portion and forming a transverse duct ; at least one ducted tail rotor rotatably arranged in the transverse duct , wherein the at least one ducted tail rotor comprises a plurality of rotor blades mounted to a rotatable rotor hub ; and a stator with a gearbox fairing mounted to the shroud for supporting the rotatable rotor hub in the transverse duct , wherein the stator comprises at least one rotatable stator blade connecting the gearbox fairing to the shroud .
A computer program product, comprising program code for performing combined active noise cancellation and noise compensation in a headphone, wherein the program code is configured to, when executed by a computing device or system, cause said computing device or system to perform the steps of: selecting one of a plurality of first transfer functions based on at least one feature of at least one of an external noise and a content audio signal representing a sound to be reproduced through the headphone; and performing noise compensation by computing a second audio signal by applying the selected first transfer function to a first audio signal; and deriving gains for the noise compensation at least based on the second audio signal, and wherein the at least one feature can be used to distinguish at least two of the first transfer functions, each of the first transfer functions is configured to transform the first audio signal to the second audio signal which is assumed as representing a version of the sound represented by the first audio signal, which arrives at an eardrum of a listener wearing the headphone, and the first audio signal is the content audio signal. selecting one of a plurality of first transfer functions based on at least one feature of at least one of an external noise and a content audio signal representing a sound to be reproduced through the headphone; and performing noise compensation by computing a second audio signal by applying the selected first transfer function to a first audio signal; and deriving gains for the noise compensation at least based on the second audio signal, and wherein the at least one feature can be used to distinguish at least two of the first transfer functions, each of the first transfer functions is configured to transform the first audio signal to the second audio signal which is assumed as representing a version of the sound represented by the first audio signal, which arrives at an eardrum of a listener wearing the headphone, and the first audio signal is the content audio signal.
A customizable manufacturing system comprising: - a pair of modules (102-118;406; 902), each having an interior interconnected with the interior of the other module, wherein each module includes an on-board environmental control system for controlling an environment within the module, and a connection means for interconnecting the module interior with another module interior; wherein controlling the environment within the module includes controlling one or more of air flow, heat, cold, humidity, pressure and particulates, wherein the pair of modules is maintained at a positive pressure during operation; and - a central controller operating to at least perform one or more of operation; monitoring, and information collection in real time for the operation of the system; characterized in that : - each module interior includes one or more components to perform at least one specific task of a biological and/or pharmaceutical manufacturing process; and - at least some of the components are disposable. - a pair of modules (102-118;406; 902), each having an interior interconnected with the interior of the other module, wherein each module includes an on-board environmental control system for controlling an environment within the module, and a connection means for interconnecting the module interior with another module interior; wherein controlling the environment within the module includes controlling one or more of air flow, heat, cold, humidity, pressure and particulates, wherein the pair of modules is maintained at a positive pressure during operation; and - a central controller operating to at least perform one or more of operation; monitoring, and information collection in real time for the operation of the system; - each module interior includes one or more components to perform at least one specific task of a biological and/or pharmaceutical manufacturing process; and - at least some of the components are disposable.
A machine tool comprising: - a spindle configured to rotate a workpiece or a tool; - a sensor configured to output two signals according to a rotation angle of the spindle during each of rotation of the spindle and halt of the spindle , the two signals having phases shifted from each other by a predetermined angle; and - a controller configured to detect occurrence of an abnormality in at least one of the spindle and the sensor when a signal different from the signal output during each of rotation of the spindle and halt of the spindle is output from the sensor and the controller detects the occurrence of the abnormality when a phase difference between the two signals is not the predetermined angle. - a spindle configured to rotate a workpiece or a tool; - a sensor configured to output two signals according to a rotation angle of the spindle during each of rotation of the spindle and halt of the spindle , the two signals having phases shifted from each other by a predetermined angle; and - a controller configured to detect occurrence of an abnormality in at least one of the spindle and the sensor when a signal different from the signal output during each of rotation of the spindle and halt of the spindle is output from the sensor and the controller detects the occurrence of the abnormality when a phase difference between the two signals is not the predetermined angle.
An aviation turbine blade extending in the radial direction from a blade root as far as an upper partition wall , said blade comprising a plurality of inner cavities (C1-C10) defining at least one cooling circuit, each of said inner cavities (C1-C10) being defined by walls among inner walls , a lower surface wall , an upper surface wall , the blade root and the upper partition wall , said blade comprising at least one reinforcing beam disposed inside one of said inner cavities (C3, C8), and connecting the blade root to the upper partition wall , said reinforcing beam not being connected to the inner walls , the lower surface wall and the upper surface wall , characterized in that said reinforcing beam is hollow and has slots and/or holes soas to allow air circulation within the reinforcing beam. said blade comprising at least one reinforcing beam disposed inside one of said inner cavities (C3, C8), and connecting the blade root to the upper partition wall , said reinforcing beam not being connected to the inner walls , the lower surface wall and the upper surface wall , characterized in that said reinforcing beam is hollow and has slots and/or holes soas to allow air circulation within the reinforcing beam.
A method for acquiring an image of a target area, comprising: scanning a waveguide assembly in a scan pattern so as to provide illumination to the target area, the waveguide assembly being fixed along at least one point of the waveguide assembly and comprising a cantilevered distal portion having a plurality of waveguides optically coupled to an optical system to focus light from the waveguide assembly and produce a plurality of focal planes located at different distances with respect to an optical axis in the optical system; collecting, for each of the plurality of focal planes, light reflected from the target area; and generating, based at least in part on the light collected from the target area, a composite image having a depth of field spanning over a distance between the plurality of focal planes. scanning a waveguide assembly in a scan pattern so as to provide illumination to the target area, the waveguide assembly being fixed along at least one point of the waveguide assembly and comprising a cantilevered distal portion having a plurality of waveguides optically coupled to an optical system to focus light from the waveguide assembly and produce a plurality of focal planes located at different distances with respect to an optical axis in the optical system; collecting, for each of the plurality of focal planes, light reflected from the target area; and generating, based at least in part on the light collected from the target area, a composite image having a depth of field spanning over a distance between the plurality of focal planes.