mhurhangee/ep-ind-claims huggingface dataset:
Diagnostic system (130;230) for a level crossing safeguarding system (EBÜT80), of which the relay circuit has electrical connection cables, of which at least a plurality are guided in a cable duct, at least in sections, of which the access longitudinal side is provided with a detachable covering, characterised in that the cover is suitably embodied for accommodating a plurality of current sensors of the diagnostic system (130;230) and the plurality of current sensors are arranged, in particular fastened, adjacent to one another in the longitudinal direction of the covering in said covering. the cover is suitably embodied for accommodating a plurality of current sensors of the diagnostic system (130;230) and the plurality of current sensors are arranged, in particular fastened, adjacent to one another in the longitudinal direction of the covering in said covering.
A brushless sieve cleaner (1; 1'; 1"; 1′′′) for cleaning a sieving surface of a sieve box comprising the sieving surface and a sieve floor, comprising - a wobble foot (5; 5") extending along a main axis (A; A'; A") of the brushless sieve cleaner (1; 1'; 1''; 1′′′) and configured such that the wobble foot be placed on the sieve floor and the brushless sieve cleaner (1; 1'; 1"; 1′′′) can be tilted about the wobble foot (5; 5"); - at least one cleaning element (6; 6'; 6"; 6′′′) comprising a brushless cleaning region (7; 7'; 7"; 7′′′) containing no brushes, the or each cleaning region (7; 7'; 7"; 7′′′) comprising a plurality of cleaning surfaces (8; 8'; 8"; 8′′′) for cleaning the sieving surface; characterized in that each one of said plurality of cleaning surfaces (8; 8'; 8"; 8′′′) is respectively adapted for at least linear contact with said sieving surface, wherein upon rotation of said brushless sieve cleaner (1; 1'; 1"; 1′′′) about the main axis (A; A'; A"; A′′′), each individual one of the plurality of cleaning surfaces (8; 8'; 8"; 8′′′) sweeps over a planar region of the sieving surface, and in that each individual one of the plurality of cleaning surfaces (8; 8'; 8"; 8′′′) is separated from each adjacent cleaning surface (8; 8'; 8"; 8′′′) by a slot (9; 9'; 9"; 9′′′) formed in the cleaning area (7; 7'; 7"; 7′′′), and that each slot (9; 9′′′) extends in a slot direction (S; S′′′) which is at an angle (α′′′) in the range of 30° to 60° to a radial direction (R; R′′′) with respect to the main axis (A; A′′′). - a wobble foot (5; 5") extending along a main axis (A; A'; A") of the brushless sieve cleaner (1; 1'; 1''; 1′′′) and configured such that the wobble foot be placed on the sieve floor and the brushless sieve cleaner (1; 1'; 1"; 1′′′) can be tilted about the wobble foot (5; 5"); - at least one cleaning element (6; 6'; 6"; 6′′′) comprising a brushless cleaning region (7; 7'; 7"; 7′′′) containing no brushes, the or each cleaning region (7; 7'; 7"; 7′′′) comprising a plurality of cleaning surfaces (8; 8'; 8"; 8′′′) for cleaning the sieving surface; characterized in that each one of said plurality of cleaning surfaces (8; 8'; 8"; 8′′′) is respectively adapted for at least linear contact with said sieving surface, wherein upon rotation of said brushless sieve cleaner (1; 1'; 1"; 1′′′) about the main axis (A; A'; A"; A′′′), each individual one of the plurality of cleaning surfaces (8; 8'; 8"; 8′′′) sweeps over a planar region of the sieving surface, and in that each individual one of the plurality of cleaning surfaces (8; 8'; 8"; 8′′′) is separated from each adjacent cleaning surface (8; 8'; 8"; 8′′′) by a slot (9; 9'; 9"; 9′′′) formed in the cleaning area (7; 7'; 7"; 7′′′), and that each slot (9; 9′′′) extends in a slot direction (S; S′′′) which is at an angle (α′′′) in the range of 30° to 60° to a radial direction (R; R′′′) with respect to the main axis (A; A′′′).
An audio processing apparatus comprising: an audio classifier for classifying an audio signal into at least one audio type in real time, wherein the audio classifier is further adapted to estimate, at the same time, for each audio type a confidence value representing a probability that the audio signal is of the respective audio type; an audio improving device for improving experience of audience, wherein the audio improving device comprises at least one selected from a dialog enhancer, a surround virtualizer, a volume leveler and an equalizer; and an adjusting unit for adjusting at least one parameter of the audio improving device in a continuous manner based on the confidence value of the at least one audio type, wherein the at least one parameter comprises at least one parameter for at least one of dialog enhancement processing by the dialog enhancer, surround virtualizing processing by the surround virtualizer, volume leveling processing by the volume leveler and equalizing processing by the equalizer. an audio classifier for classifying an audio signal into at least one audio type in real time, wherein the audio classifier is further adapted to estimate, at the same time, for each audio type a confidence value representing a probability that the audio signal is of the respective audio type; an audio improving device for improving experience of audience, wherein the audio improving device comprises at least one selected from a dialog enhancer, a surround virtualizer, a volume leveler and an equalizer; and an adjusting unit for adjusting at least one parameter of the audio improving device in a continuous manner based on the confidence value of the at least one audio type, wherein the at least one parameter comprises at least one parameter for at least one of dialog enhancement processing by the dialog enhancer, surround virtualizing processing by the surround virtualizer, volume leveling processing by the volume leveler and equalizing processing by the equalizer.
A medical implant (210, 310, 410) for treating a shoulder joint, comprising: a humeral head attachment region (216, 316, 416) configured to be attached to a humeral head of the shoulder joint; a glenoid attachment region (218, 318, 418) configured to be attached to a glenoid of the shoulder joint; and a rotator cuff tendon attachment region (212, 312, 412) configured to be attached to a rotator cuff tendon of the shoulder joint, wherein the medical implant (210, 310, 410) is a continuous member, wherein the humeral head attachment region (216, 316, 416) is positioned between the glenoid attachment region (218, 318, 418) and the rotator cuff tendon attachment region (212, 312, 412); wherein the medical implant is configured to fold over on itself in within the body at a position along the humeral head attachment region (216, 316, 416) with both the glenoid attachment region (218, 318, 418) and the rotator cuff tendon attachment region (212, 312, 412) extending toward the sagittal plane from the humeral head attachment region (216, 316, 416). a humeral head attachment region (216, 316, 416) configured to be attached to a humeral head of the shoulder joint; a glenoid attachment region (218, 318, 418) configured to be attached to a glenoid of the shoulder joint; and a rotator cuff tendon attachment region (212, 312, 412) configured to be attached to a rotator cuff tendon of the shoulder joint, wherein the medical implant (210, 310, 410) is a continuous member, wherein the humeral head attachment region (216, 316, 416) is positioned between the glenoid attachment region (218, 318, 418) and the rotator cuff tendon attachment region (212, 312, 412); wherein the medical implant is configured to fold over on itself in within the body at a position along the humeral head attachment region (216, 316, 416) with both the glenoid attachment region (218, 318, 418) and the rotator cuff tendon attachment region (212, 312, 412) extending toward the sagittal plane from the humeral head attachment region (216, 316, 416).
A method comprising: receiving, at a processor from a camera, image data associated with at least a portion of a control panel within the field of view of the camera, the control panel having one or more controls; presenting one or more images at a display, wherein the one or more images are generated based on the image data; determining a location of a first control of the control panel based on the image data and based on control settings data, wherein the control settings data includes control data that identifies a layout of the one or more controls of the control panel; providing an indication of the location of the first control at the display; and providing an indication of a desired configuration of the first control at the display. receiving, at a processor from a camera, image data associated with at least a portion of a control panel within the field of view of the camera, the control panel having one or more controls; presenting one or more images at a display, wherein the one or more images are generated based on the image data; determining a location of a first control of the control panel based on the image data and based on control settings data, wherein the control settings data includes control data that identifies a layout of the one or more controls of the control panel; providing an indication of the location of the first control at the display; and providing an indication of a desired configuration of the first control at the display.
A rotary steerable tool for directional drilling, comprising: a tool body including an outer surface and a flowbore therethrough; a pad movably coupled to the tool body and alternately movable between an extended position and a retracted position; a piston engageable with the pad to move the pad; a pressurized fluid supply flow path to provide fluid pressure to the piston for the piston to controllably move the pad to the extended position; a dump valve in fluid communication with the pressurized fluid supply flow path to selectively vent fluid pressure to allow the pad to move from the extended position toward the retracted position, and a rotary valve in fluid communication with the pressurized fluid supply flow path to selectively control fluid pressure from the flowbore of the tool body to the piston for controllably moving the pad to the extended position. a tool body including an outer surface and a flowbore therethrough; a pad movably coupled to the tool body and alternately movable between an extended position and a retracted position; a piston engageable with the pad to move the pad; a pressurized fluid supply flow path to provide fluid pressure to the piston for the piston to controllably move the pad to the extended position; a dump valve in fluid communication with the pressurized fluid supply flow path to selectively vent fluid pressure to allow the pad to move from the extended position toward the retracted position, and a rotary valve in fluid communication with the pressurized fluid supply flow path to selectively control fluid pressure from the flowbore of the tool body to the piston for controllably moving the pad to the extended position.
A vertical cavity surface emitting laser, vcsel, assembly, the assembly comprising: a vertical cavity surface emitting laser, vcsel, (110, 210); a thermally isolating iso-thermal cage (170, 270), mounted within a physics package, surrounding the vcsel on all sides, the iso-thermal cage coupled to the heater block via a thermally conductive path to defeat black-body coupling between the vcsel and a physics package and to maintain the temperature within the thermally isolating iso-thermal cage at the same temperature as the base of the vcsel and the base of the heater block, wherein the thermally isolating iso-thermal cage comprises: a first scaffold supporting the vcsel and the heater block; a second scaffold member providing an orifice for release of vcsel radiation from within the thermally isolating iso-thermal cage, wherein the first scaffold and the second scaffold are made from silicon material and the vcsel is enclosed on all sides by the thermally isolating iso-thermal cage formed by the first scaffold and the second scaffold. a vertical cavity surface emitting laser, vcsel, (110, 210); a thermally isolating iso-thermal cage (170, 270), mounted within a physics package, surrounding the vcsel on all sides, the iso-thermal cage coupled to the heater block via a thermally conductive path to defeat black-body coupling between the vcsel and a physics package and to maintain the temperature within the thermally isolating iso-thermal cage at the same temperature as the base of the vcsel and the base of the heater block, wherein the thermally isolating iso-thermal cage comprises: a first scaffold supporting the vcsel and the heater block; a second scaffold member providing an orifice for release of vcsel radiation from within the thermally isolating iso-thermal cage, wherein the first scaffold and the second scaffold are made from silicon material and the vcsel is enclosed on all sides by the thermally isolating iso-thermal cage formed by the first scaffold and the second scaffold. a first scaffold supporting the vcsel and the heater block; a second scaffold member providing an orifice for release of vcsel radiation from within the thermally isolating iso-thermal cage, wherein the first scaffold and the second scaffold are made from silicon material and the vcsel is enclosed on all sides by the thermally isolating iso-thermal cage formed by the first scaffold and the second scaffold.
A relay device for supporting uplink communication between a terminal device and a base station, the relay device comprising: at least one receiver; a control processor, operably coupled to the at least one receiver and arranged to: monitor a downlink communication from the base station to the terminal device; determine therefrom at least one uplink resource to be used by the terminal device; configure the at least one receiver to receive the at least one uplink resource; receive an uplink message on the at least one uplink resource; decode therefrom uplink control information and physical layer signalling in the form of channel quality information used by the terminal device; configure the at least one receiver of the relay device, in response to the decoded uplink control information, to receive periodic messages on an uplink control resource to be used by the terminal device; modify the uplink message by creating a relay control element identifying the physical layer signalling; and a transmitter, operably coupled to the control processor and arranged to relay the modified periodic uplink control channel messages on the identified uplink control resource from the terminal device to the base station. at least one receiver; a control processor, operably coupled to the at least one receiver and arranged to: monitor a downlink communication from the base station to the terminal device; determine therefrom at least one uplink resource to be used by the terminal device; configure the at least one receiver to receive the at least one uplink resource; receive an uplink message on the at least one uplink resource; decode therefrom uplink control information and physical layer signalling in the form of channel quality information used by the terminal device; configure the at least one receiver of the relay device, in response to the decoded uplink control information, to receive periodic messages on an uplink control resource to be used by the terminal device; modify the uplink message by creating a relay control element identifying the physical layer signalling; and monitor a downlink communication from the base station to the terminal device; determine therefrom at least one uplink resource to be used by the terminal device; configure the at least one receiver to receive the at least one uplink resource; receive an uplink message on the at least one uplink resource; decode therefrom uplink control information and physical layer signalling in the form of channel quality information used by the terminal device; configure the at least one receiver of the relay device, in response to the decoded uplink control information, to receive periodic messages on an uplink control resource to be used by the terminal device; modify the uplink message by creating a relay control element identifying the physical layer signalling; and a transmitter, operably coupled to the control processor and arranged to relay the modified periodic uplink control channel messages on the identified uplink control resource from the terminal device to the base station.
Strain sensor having a selective spectral response with respect to incident electromagnetic signals, comprising: - a support substrate, - a first conductive portion, - a second conductive portion comprising an open loop coupled to said first conductive portion, said open loop comprising a first end and a second end arranged facing the first end, in which the first end and second end together define a capacitor having an electrical capacitance of a value dependent on the position of the first end in relation to the second end, in which, when a predetermined force is applied to the substrate in a longitudinal direction, a stretching of the substrate occurs in the longitudinal direction and the result thereof is a modification of the position of the first end in relation to the second end which modifies the electrical capacitance and which modifies the spectral response, characterized in that the open loop comprises at least one overhanging portion, extending in the longitudinal direction, which has an anchoring end linked to the substrate, a central part not linked to the substrate and a free end forming the second end. - a support substrate, - a first conductive portion, - a second conductive portion comprising an open loop coupled to said first conductive portion,
Control method for an industrial plant comprising the acquisition of a plurality of measurement data relating to the components of a plant and/or to a product being worked, their storage in a storage device and their transmission to an automation system which uses said measurement data to generate respective control signals, said measurement data and at least some of said control signals being transmitted to an interactive platform (16; 16a, 16b) characterized in that a first interactive platform comprises at least one device for assisting an operator, having a control unit which, in a control step, uses suitable verification rules and continuously compares said measurement data, possibly combining them with at least some of said control signals and with control commands, given by an operator, in order to identify specific operational events characteristic of the process, wherein each of said operational events defines a point of interest which is an aggregation of measurement data, operational control signals and also video-audio contents relating to a determinate time window prior to and following said event on the basis of said verification rules, wherein said points of interest are generated automatically by said control unit and possibly by said processing unit.
Method for producing a metal component by a casting and forming tool comprising the steps: casting a melt of a metal alloy into the casting and forming-tool, wherein the melt is poured from above into a base part or a reservoir of the casting and forming tool at a first pressure, applying pressure to the solidifying melt between the base part and an upper part of the casting and forming tool, wherein the solidifying melt is pressurized with a second pressure which is higher than the first pressure, compressing the component at least mostly solidified from the melt by moving the base part relative to the upper part, wherein the component is compressed with a third pressure, which is higher than the second pressure, and wherein the compressing with the third pressure only begins when the melt is at least mostly solidified to form the component, characterised in that the upper part is set to a lower temperature than the base part during the step of applying pressure and/or compressing. casting a melt of a metal alloy into the casting and forming-tool, wherein the melt is poured from above into a base part or a reservoir of the casting and forming tool at a first pressure, applying pressure to the solidifying melt between the base part and an upper part of the casting and forming tool, wherein the solidifying melt is pressurized with a second pressure which is higher than the first pressure, compressing the component at least mostly solidified from the melt by moving the base part relative to the upper part, wherein the component is compressed with a third pressure, which is higher than the second pressure, and wherein the compressing with the third pressure only begins when the melt is at least mostly solidified to form the component, characterised in that the upper part is set to a lower temperature than the base part during the step of applying pressure and/or compressing.
A treatment system, comprising: a therapeutic ultrasonic energy source comprising a transducer (500, 900) configured for applying ultrasonic energy from a position external to a body of a patient; and a processor coupled to the transducer; an algorithm for use by the processor, wherein the algorithm is configured to define targets (1350, 1680) in a nerve region that at least partially surrounds a blood vessel (1340, 1705) and such that the defined targets (1350, 1680) also at least partially surround the blood vessel (1340, 1705); the processor being configured by the algorithm to operate the transducer, based on information regarding the blood vessel (1340, 1705) from an imaging device, in order to treat nerve tissue in the nerve region that at least partially surrounds the blood vessel (1340, 1705), by applying the ultrasonic energy to the defined targets with varying focal point positions around the blood vessel; characterised by: a motion tracking system configured to track the blood vessel (1340, 1705) and update a position associated with the nerve; and wherein the processor is further configured to adjust the delivery of the ultrasonic energy to the nerve tissue based on the updated position that is associated with the nerve. a therapeutic ultrasonic energy source comprising a transducer (500, 900) configured for applying ultrasonic energy from a position external to a body of a patient; and a processor coupled to the transducer; an algorithm for use by the processor, wherein the algorithm is configured to define targets (1350, 1680) in a nerve region that at least partially surrounds a blood vessel (1340, 1705) and such that the defined targets (1350, 1680) also at least partially surround the blood vessel (1340, 1705); the processor being configured by the algorithm to operate the transducer, based on information regarding the blood vessel (1340, 1705) from an imaging device, in order to treat nerve tissue in the nerve region that at least partially surrounds the blood vessel (1340, 1705), by applying the ultrasonic energy to the defined targets with varying focal point positions around the blood vessel; characterised by: a motion tracking system configured to track the blood vessel (1340, 1705) and update a position associated with the nerve; and wherein the processor is further configured to adjust the delivery of the ultrasonic energy to the nerve tissue based on the updated position that is associated with the nerve. a motion tracking system configured to track the blood vessel (1340, 1705) and update a position associated with the nerve; and wherein the processor is further configured to adjust the delivery of the ultrasonic energy to the nerve tissue based on the updated position that is associated with the nerve.
A multilayered sliding member comprising: a backing plate; a porous metal sintered layer formed on one surface of said backing plate; and a coating layer filling pores of, and coating a surface of, said porous metal sintered layer, said coating layer including a polytetrafluoroethylene resin and 10 to 40% by mass of a metal metaphosphate, wherein said coating layer further contains 3 to 20% by mass of a heat resistant resin including at least one of a thermosetting polyimide resin, a polyamide-imide resin, an aromatic polyamide resin, an aromatic polyester resin, and a polyether ether ketone resin.