mhurhangee/patent-ind-claim-en huggingface dataset:
A hearing device comprising - a set of microphones for provision of one or more microphone input signals, comprising a first microphone for provision of a first microphone input signal ; - a processor for processing the one or more microphone input signals and providing an electrical output signal based on the one or more microphone input signals; - a receiver for converting the electrical output signal to an audio output signal; and - a controller operatively connected to the set of microphones, the controller comprising a speech intelligibility estimator for estimating a speech intelligibility indicator indicative of speech intelligibility based on the one or more microphone input signals, wherein the controller is configured to control the processor based on the speech intelligibility indicator, characterized in that the speech intelligibility estimator comprises a pitch estimator for estimating a pitch parameter of a first audio source, and wherein the speech intelligibility indicator is based on the pitch parameter and a direction of the first audio source. - a set of microphones for provision of one or more microphone input signals, comprising a first microphone for provision of a first microphone input signal ; - a processor for processing the one or more microphone input signals and providing an electrical output signal based on the one or more microphone input signals; - a receiver for converting the electrical output signal to an audio output signal; and - a controller operatively connected to the set of microphones, the controller comprising a speech intelligibility estimator for estimating a speech intelligibility indicator indicative of speech intelligibility based on the one or more microphone input signals, wherein the controller is configured to control the processor based on the speech intelligibility indicator,
A compound of the formula: wherein R is or a pharmaceutically acceptable salt thereof.
A method of applying a heat-shrinkable sleeve to a portion of a pipe , the method including the following steps: - providing a pipe , - arranging a heat-shrinkable sleeve around a portion of the pipe , - arranging a heat-delivery apparatus around the pipe in the region of the sleeve such that an axis of the heat-delivery apparatus coincides with a longitudinal axis of the pipe , wherein the heat-delivery apparatus includes at least three heater devices , each heater device including heating elements arranged circumferentially and symmetrically around the axis of the apparatus , characterised by the at least three heater devices being arranged at different positions along the axis of the pipe , such that a first heater device is positioned closer to the centre of the sleeve, in the axial direction, than second and third heater devices , the second heater device is positioned in the region of a first end of the sleeve , and the third heater device is positioned in the region of a second end of the sleeve opposite to the first end, and - individually controlling the heating elements to apply more heat to the sleeve at a first circumferential position compared to a second circumferential position along at least the majority of the length of the sleeve, and - individually controlling two or more of the heater devices when applying heat to the heat-shrinkable sleeve to cause progressive heating along at least a part of the length of the sleeve , wherein each heater device is in the form of an infrared heater device. - providing a pipe , - arranging a heat-shrinkable sleeve around a portion of the pipe , - arranging a heat-delivery apparatus around the pipe in the region of the sleeve such that an axis of the heat-delivery apparatus coincides with a longitudinal axis of the pipe , wherein the heat-delivery apparatus includes at least three heater devices , each heater device including heating elements arranged circumferentially and symmetrically around the axis of the apparatus , - individually controlling the heating elements to apply more heat to the sleeve at a first circumferential position compared to a second circumferential position along at least the majority of the length of the sleeve, and - individually controlling two or more of the heater devices when applying heat to the heat-shrinkable sleeve to cause progressive heating along at least a part of the length of the sleeve ,
Powder bed fusion additive manufacturing machine , this additive manufacturing machine comprising a work surface , a build sleeve extending from the work surface and below the work surface, and a build platform moving translationally between a raised position and a lowered position inside the build sleeve under the effect of an actuator , the platform being connected to the actuator by a support , the build sleeve comprising a slot in its height (H44) allowing the support to pass through the build sleeve to connect the platform to the actuator when the build platform translates from its raised position to its lowered position in the build sleeve, a closing-off element allowing a slot in the sleeve to be closed off progressively as the platform effects its translational movement inside the sleeve from its raised position to its lowered position, a closing-off element being a tape , the additive manufacturing machine being characterized in that the upper end (U70) of a closing-off tape is fixed to the upper edge (U44) of the build sleeve or to the work surface .
Reinforcement element for composite pressure vessel , said reinforcement element being provided to be inserted and to fill in a hollow shaft of a plastic liner of the composite pressure vessel , said hollow shaft connecting opposite walls of the plastic liner , said reinforcement element comprising a central part and two external parts constituted by a plurality of continuous fibres impregnated with a first resin, the central part of the reinforcement element having a dimension substantially equal to the dimension of the central part of the hollow shaft and being a full part, the two external parts being able to be unfolded and fixed on the external surface of opposite walls of the liner .
Running gear chain , in particular bogie chain , having a flexible body , preferably an elastomer body , which is closed in endless fashion, or closable in endless fashion, in a running direction (A), wherein the flexible body has at least one tension member , preferably a multiplicity of tension members , which extends/extend in the running direction (A) and is/are closed in endless fashion, or closable in endless fashion, with the flexible body in a running direction (A), wherein a multiplicity of rigid transverse elements which are connected to the outer side of the flexible body and which extend substantially transversely with respect to the running direction (A), characterized in that at least some of the rigid transverse elements , preferably all of the rigid transverse elements , are arranged so close together in the running direction (A) that, with a planar extent of the flexible body , two immediately adjacent rigid transverse elements make contact in the running direction (A).
A method of wireless communications, comprising: determining , at a user equipment, UE , to change one or more beamforming parameters for transmissions on a new beam wherein determining to change the one or more beamforming parameters is based on the UE receiving a command to change the one or more beamforming parameters, wherein the command indicates resources assigned for a power headroom report; determining a power headroom applicable to a transmission from the UE on the new beam; selecting a scheduled transmission during a time period after the command is implemented as the resources assigned for the power headroom report and wherein selecting the scheduled transmission is based on a priority of a transmission type of the scheduled transmission; and transmitting , in response to the change, the power headroom report based on the power headroom, the power headroom report being transmitted on the resources assigned for the power headroom report.. determining , at a user equipment, UE , to change one or more beamforming parameters for transmissions on a new beam wherein determining to change the one or more beamforming parameters is based on the UE receiving a command to change the one or more beamforming parameters, wherein the command indicates resources assigned for a power headroom report; determining a power headroom applicable to a transmission from the UE on the new beam; selecting a scheduled transmission during a time period after the command is implemented as the resources assigned for the power headroom report and wherein selecting the scheduled transmission is based on a priority of a transmission type of the scheduled transmission; and transmitting , in response to the change, the power headroom report based on the power headroom, the power headroom report being transmitted on the resources assigned for the power headroom report..
A receiver (20; 39; 70) for visible light communication, comprising: a photodetector array (21; 71), having a plurality of photodetectors (22-28; 72-76) sequentially arranged in a first direction (x) and each photodetector (22-28; 72-76) extending over a distance in said first (x) and a second direction (y), different from said first direction, for receiving and converting a visible light signal into an electrical signal; a processor , arranged for processing said electrical signal, and a visible light transmissive structure (30; 40; 77), comprising a light entrance surface (31; 41) and a light exit surface , arranged for receiving and directing at said photodetector array (21; 71) visible light rays comprising a visible light signal, said visible light transmissive structure (30; 40; 77) arranged for spreading apart in said first direction and diverging in said second direction, at said exit surface (32; 42), light rays entering said light entrance surface (31; 41) at different angles of incidence. a photodetector array (21; 71), having a plurality of photodetectors (22-28; 72-76) sequentially arranged in a first direction (x) and each photodetector (22-28; 72-76) extending over a distance in said first (x) and a second direction (y), different from said first direction, for receiving and converting a visible light signal into an electrical signal; a processor , arranged for processing said electrical signal, and a visible light transmissive structure (30; 40; 77), comprising a light entrance surface (31; 41) and a light exit surface , arranged for receiving and directing at said photodetector array (21; 71) visible light rays comprising a visible light signal, said visible light transmissive structure (30; 40; 77) arranged for spreading apart in said first direction and diverging in said second direction, at said exit surface (32; 42), light rays entering said light entrance surface (31; 41) at different angles of incidence.
A radiation detector assembly comprising: a semiconductor detector having a surface ; plural pixelated anodes disposed on the surface , each pixelated anode configured to generate a primary signal responsive to reception of a photon by the pixelated anode and to generate at least one secondary signal responsive to an induced charge caused by reception of a photon by at least one adjacent anode ; and at least one processor operably coupled to the pixelated anodes, the at least one processor configured to: define sub-pixels for each pixelated anode ; acquire signals corresponding to acquisition events from the pixelated anodes , wherein the signals comprise the primary signal and the at least one secondary signal; determine sub-pixel locations for the acquisition events using the signals ; and apply at least one calibration parameter on a per sub-pixel basis for the acquisition events based on the determined sub-pixel locations ; wherein the at least one processor is configured to apply a uniformity map calibration to the signals. a semiconductor detector having a surface ; plural pixelated anodes disposed on the surface , each pixelated anode configured to generate a primary signal responsive to reception of a photon by the pixelated anode and to generate at least one secondary signal responsive to an induced charge caused by reception of a photon by at least one adjacent anode ; and at least one processor operably coupled to the pixelated anodes, the at least one processor configured to: define sub-pixels for each pixelated anode ; acquire signals corresponding to acquisition events from the pixelated anodes , wherein the signals comprise the primary signal and the at least one secondary signal; determine sub-pixel locations for the acquisition events using the signals ; and apply at least one calibration parameter on a per sub-pixel basis for the acquisition events based on the determined sub-pixel locations ; define sub-pixels for each pixelated anode ; acquire signals corresponding to acquisition events from the pixelated anodes , wherein the signals comprise the primary signal and the at least one secondary signal; determine sub-pixel locations for the acquisition events using the signals ; and apply at least one calibration parameter on a per sub-pixel basis for the acquisition events based on the determined sub-pixel locations ; wherein the at least one processor is configured to apply a uniformity map calibration to the signals.
A medication monitoring system comprising: a medication container and a cover ; and a beacon system , which includes at least one beacon that transmits a wireless signal when the cover is removed from the medication container, characterised in that : the beacon system includes two electrical contacts , and a rim of the medication container includes a conductor configured to form a short circuit between the two electrical contacts when the cover is installed on the medication container, such that the beacon is held in a reset state when the cover is installed on the medication container, wherein the beacon is in a low-power standby mode while it is held in the reset state; and the beacon is configured to transmit the wireless signal when the short circuit between the two electrical contacts is interrupted. a medication container and a cover ; and a beacon system , which includes at least one beacon that transmits a wireless signal when the cover is removed from the medication container, characterised in that : the beacon system includes two electrical contacts , and a rim of the medication container includes a conductor configured to form a short circuit between the two electrical contacts when the cover is installed on the medication container, such that the beacon is held in a reset state when the cover is installed on the medication container, wherein the beacon is in a low-power standby mode while it is held in the reset state; and the beacon is configured to transmit the wireless signal when the short circuit between the two electrical contacts is interrupted. the beacon system includes two electrical contacts , and a rim of the medication container includes a conductor configured to form a short circuit between the two electrical contacts when the cover is installed on the medication container, such that the beacon is held in a reset state when the cover is installed on the medication container, wherein the beacon is in a low-power standby mode while it is held in the reset state; and the beacon is configured to transmit the wireless signal when the short circuit between the two electrical contacts is interrupted.
A method for constructing a vacuum belt filter device configured to extract solids from a suspension containing solids, wherein the method comprises providing an endless moving filter belt , providing a vacuum arrangement , which comprises a vacuum box having suction openings and which is configured to create a suction at a low pressure side of the endless moving filter belt at a working zone of the vacuum belt filter device, providing a guide part on opposite sides of the suction openings of the vacuum box , by arranging each guide part between the vacuum box and the low pressure side of the endless moving filter belt , and providing each guide part with a first groove extending in the moving direction A of the endless moving filter belt , and providing an endless seal belt to run with respect to the first groove of each guide part in the moving direction A of the endless moving filter belt in contact with the low pressure side of the endless moving filter belt , characterized by providing the first groove of each guide part with a detachable wear strip between the endless seal belt and guide part so that the detachable wear strip is arranged in the first groove , by providing the guide part with fluid feeding means for feeding lubrication fluid and/or sealing fluid to the first groove in the guide part , and by perforating the detachable wear strip for allowing lubricating fluid to flow through the detachable wear strip .
A modularly constructed plug-in converter unit for a switch cabinet of a control technology power supply system of a nuclear power plant, wherein the plug-in converter unit comprises a frame , at least one busbar , a group of fuses and a group of load terminals , wherein the plug-in converter unit is configured to be inserted into the switch cabinet and to be fastened therein, and wherein the plug-in converter unit , being inserted in the switch cabinet, is arranged such that one plug-in converter or several plug-in converters are inserted into this plug-in converter unit .
A method for receiving a plurality of data bits at a receiver interface, each data bit received by a respective data recovery circuit, the method comprising: responsive to receiving a strobe signal (DQS) that is associated with a set of databits (DQ -(DQ(N-1): generating, by a strobe clock recovery circuit (112(S)), a forward strobe clock offset (DQSPC), wherein the forward clock offset (DQSPC) aligns a data bit sampling clock signal (DQSrclk) on a center of the strobe signal (DQS); receiving, by each respective clock recovery circuit (113 ) from a plurality of clock recovery circuits (113 -113(n-1)), a particular data bit (DQ ) from the set of databits (DQ -DQ(N-1)), wherein each respective clock recovery circuit (113 ) is associated with a respective databit from the plurality of data bits (DQ -DQ(N-1)); generating, by each respective clock recovery circuit (113 ) from the plurality of clock recovery circuits (113 -113(n-1)), a respective intermediate clock offset (DQPC ) that aligns the particular data bit (DQ with the sampling clock signal (DQ Srclk); combining, by each respective clock recovery circuit (113 ) from the plurality of clock recovery circuits (113 -113(n-1)), the forward strobe offset (DQSPC) with the respective intermediate clock offset DQPC ) to generate a respective recovered clock signal DQrclk ; and recovering, by each respective clock recovery circuit (113 ) from the plurality of clock recovery circuits (113 -113(n-1)), the particular data bit (DQ ) using the recovered clock signal (DQrclk ). generating, by a strobe clock recovery circuit (112(S)), a forward strobe clock offset (DQSPC), wherein the forward clock offset (DQSPC) aligns a data bit sampling clock signal (DQSrclk) on a center of the strobe signal (DQS); receiving, by each respective clock recovery circuit (113 ) from a plurality of clock recovery circuits (113 -113(n-1)), a particular data bit (DQ ) from the set of databits (DQ -DQ(N-1)), wherein each respective clock recovery circuit (113 ) is associated with a respective databit from the plurality of data bits (DQ -DQ(N-1)); generating, by each respective clock recovery circuit (113 ) from the plurality of clock recovery circuits (113 -113(n-1)), a respective intermediate clock offset (DQPC ) that aligns the particular data bit (DQ with the sampling clock signal (DQ Srclk); combining, by each respective clock recovery circuit (113 ) from the plurality of clock recovery circuits (113 -113(n-1)), the forward strobe offset (DQSPC) with the respective intermediate clock offset DQPC ) to generate a respective recovered clock signal DQrclk ; and recovering, by each respective clock recovery circuit (113 ) from the plurality of clock recovery circuits (113 -113(n-1)), the particular data bit (DQ ) using the recovered clock signal (DQrclk ).
A parking brake device having at least one first connecting line to a compressed-air source; at least one second connecting line to a compressed-air source; at least one electronically actuatable bistable valve arrangement for actuating a spring brake cylinder; and at least one further electronically actuatable redundancy control valve arrangement for actuating a redundant brake system, characterised in that there are provided at least one first electronic control module (A) and at least one second electronic control module (B) that can be operated independently of one another, it being possible to actuate the bistable valve arrangement by means of the first electronic control module (A) and it being possible to actuate the redundancy control valve arrangement independently thereof by means of the second electronic control module (B).
A scraper blade for scraping material from a conveyor belt running in a downstream travel direction, the scraper blade comprising: an upper scraping portion ; a resilient, lower body portion ; a through opening extending through the lower body portion for receiving a complementary elongate mounting member therethrough; a pair of ends of the through opening spaced from each other in the downstream travel direction; characterized in that the scraper blade comprises a non-linear cross-sectional configuration of the through opening in the downstream travel direction extending from one end of the through opening to the other end, wherein the cross-sectional configuration of the through opening includes a pair of lower, substantially straight portions extending away from an upper juncture of the substantially straight portions. an upper scraping portion ; a resilient, lower body portion ; a through opening extending through the lower body portion for receiving a complementary elongate mounting member therethrough; a pair of ends of the through opening spaced from each other in the downstream travel direction; characterized in that the scraper blade comprises a non-linear cross-sectional configuration of the through opening in the downstream travel direction extending from one end of the through opening to the other end, wherein the cross-sectional configuration of the through opening includes a pair of lower, substantially straight portions extending away from an upper juncture of the substantially straight portions.