mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for measuring flow of a process fluid based upon a differential pressure, comprising: an elongate spool having a spool conduit therethrough adapted to be coupled in line with process piping to receive the flow of process fluid; a meter body carried in the elongate spool having the spool conduit therethrough, the meter body including a primary element opening which extends from the spool conduit to outside of the meter body ; a carrier including a primary element configured to be removably mounted to the meter body and position the primary element in the spool conduit through the primary element opening , the carrier including an upstream pressure conduit and a downstream pressure conduit , wherein the primary element is one of a plurality of various primary elements placeable in the spool conduit through the primary element opening , wherein the carrier further comprises a meter body mounting face configured to be sealably coupled to the meter body ; and a pressure transmitter coupled to the upstream and downstream pressure conduits configured to measure the flow of process fluid based upon a pressure difference between the upstream and downstream pressure conduits , wherein the carrier includes a secondary connector on the meter body mounting face , wherein the secondary connector comprises an opening which extends close to the process fluid allowing additional process variables to be collected, wherein the carrier includes a planar face configured to fluidically couple to a planar face of the pressure transmitter or a flange connection. an elongate spool having a spool conduit therethrough adapted to be coupled in line with process piping to receive the flow of process fluid; a meter body carried in the elongate spool having the spool conduit therethrough, the meter body including a primary element opening which extends from the spool conduit to outside of the meter body ; a carrier including a primary element configured to be removably mounted to the meter body and position the primary element in the spool conduit through the primary element opening , the carrier including an upstream pressure conduit and a downstream pressure conduit , wherein the primary element is one of a plurality of various primary elements placeable in the spool conduit through the primary element opening , wherein the carrier further comprises a meter body mounting face configured to be sealably coupled to the meter body ; and a pressure transmitter coupled to the upstream and downstream pressure conduits configured to measure the flow of process fluid based upon a pressure difference between the upstream and downstream pressure conduits , wherein the carrier includes a secondary connector on the meter body mounting face , wherein the secondary connector comprises an opening which extends close to the process fluid allowing additional process variables to be collected, wherein the carrier includes a planar face configured to fluidically couple to a planar face of the pressure transmitter or a flange connection.
Method for measuring the gauge (G) of a road convoy transporting a loading and comprising a leading vehicle and at least one following towed vehicle , said method being characterised in that it uses an onboard measurement system with a gauge (G) comprising a vertical telescopic mast equipped at its upper end with an optical device comprising an optical digital imaging system , and in that it comprises the following steps: a) moving the optical device in vertical upward translation from its retracted low position to its measuring high position; b) taking images by means of the optical digital imaging system of at least the upper part of the vehicle of the road convoy for which it is sought to measure the loading height; c) determining, by means of the user or by means of image processing software, the loading height (C) of said vehicle from the images obtained in step b); d) calculating the gauge (G) of the road convoy from the distance relative to the ground of the optical digital imaging system and from the loading height (C) determined in step c). a) moving the optical device in vertical upward translation from its retracted low position to its measuring high position; b) taking images by means of the optical digital imaging system of at least the upper part of the vehicle of the road convoy for which it is sought to measure the loading height; c) determining, by means of the user or by means of image processing software, the loading height (C) of said vehicle from the images obtained in step b); d) calculating the gauge (G) of the road convoy from the distance relative to the ground of the optical digital imaging system and from the loading height (C) determined in step c).
A method in a wireless communications assembly of a first station having a plurality of antennas and configured to perform a beamforming procedure with a second station, the method comprising: controlling the plurality of antennas to simultaneously transmit, using a first sector of each of the plurality of antennas, a respective first beam including first frame data containing a first beam set identifier element identifying each of the plurality of antennas and each of the first sectors ; subsequently controlling the plurality of antennas to simultaneously transmit, using a second sector of each of the plurality of antennas, a respective second beam including second frame data containing a second beam set identifier element identifying each of the plurality of antennas and each of the second sectors; wherein each of the first beams further include respective first time delays to offset the first frame data, and wherein each of the second beams further include respective second time delays to offset the second frame data; and receiving, from the second station, first feedback data including one of the first beam set identifier element and the second beam set identifier element , and wherein the first frame data includes a first countdown value and the second frame data includes a second countdown value, the first and the second countdown value identify the first and the second frame, respectively, and wherein the first feedback data includes a countdown map identifying a received indicator for each of the first countdown value and the second countdown value. controlling the plurality of antennas to simultaneously transmit, using a first sector of each of the plurality of antennas, a respective first beam including first frame data containing a first beam set identifier element identifying each of the plurality of antennas and each of the first sectors ; subsequently controlling the plurality of antennas to simultaneously transmit, using a second sector of each of the plurality of antennas, a respective second beam including second frame data containing a second beam set identifier element identifying each of the plurality of antennas and each of the second sectors; wherein each of the first beams further include respective first time delays to offset the first frame data, and wherein each of the second beams further include respective second time delays to offset the second frame data; and receiving, from the second station, first feedback data including one of the first beam set identifier element and the second beam set identifier element , and wherein the first frame data includes a first countdown value and the second frame data includes a second countdown value, the first and the second countdown value identify the first and the second frame, respectively, and wherein the first feedback data includes a countdown map identifying a received indicator for each of the first countdown value and the second countdown value.
A method in an audio encoder for quantization of parameters relating to parametric spatial coding of audio signals, comprising: receiving at least a first parameter and a second parameter to be quantized; quantizing the first parameter based on a first scalar quantization scheme having first non-uniform step-sizes to obtain a quantized first parameter, wherein the first non-uniform step-sizes are selected such that smaller step-sizes are used for ranges of the first parameter where the human sound perception is most sensitive, and larger step-sizes are used for ranges of the first parameter where the human sound perception is less sensitive; dequantizing the quantized first parameter using the first scalar quantization scheme to obtain a dequantized first parameter being an approximation of the first parameter; accessing a scaling function which maps values of the dequantized first parameter on scaling factors, and determining a scaling factor by subjecting the dequantized first parameter to the scaling function; and quantizing the second parameter based on the scaling factor and a second scalar quantization scheme having second non-uniform step-sizes to obtain a quantized second parameter. receiving at least a first parameter and a second parameter to be quantized; quantizing the first parameter based on a first scalar quantization scheme having first non-uniform step-sizes to obtain a quantized first parameter, wherein the first non-uniform step-sizes are selected such that smaller step-sizes are used for ranges of the first parameter where the human sound perception is most sensitive, and larger step-sizes are used for ranges of the first parameter where the human sound perception is less sensitive; dequantizing the quantized first parameter using the first scalar quantization scheme to obtain a dequantized first parameter being an approximation of the first parameter; accessing a scaling function which maps values of the dequantized first parameter on scaling factors, and determining a scaling factor by subjecting the dequantized first parameter to the scaling function; and quantizing the second parameter based on the scaling factor and a second scalar quantization scheme having second non-uniform step-sizes to obtain a quantized second parameter.
An aerial work platform suitable for all-terrain outdoor use, comprising: - a frame equipped with at least two front wheels and at least two rear wheels allowing the translation of the aerial work platform along the ground, - a working platform , - a lifting mechanism for the working platform , which is mounted on the frame , - at least one first electric motor (M1) for providing the driving power to move the aerial work platform along the ground, - at least one second electric motor (M2) for providing the driving power to operate the lifting mechanism of the working platform , - at least one rechargeable electric battery for powering the at least one first and the at least one second electric motor (M1, M2), wherein: - the driving power for moving the aerial work platform along the ground is always provided exclusively by the at least one first electric motor (M1), and - the driving power for actuating the lifting mechanism of the work platform is always provided exclusively by the at least one second electric motor (M2), the aerial work platform comprising also: - a front axle equipped with the two front wheels and a rear axle equipped with the two rear wheels , at least one of the axles being a transmission axle for transmitting the driving force of the at least one first electric motor (M1) to the corresponding wheels, and - a location provided for the mounting in a removable manner of a power generator , characterized in that the aerial work platform further comprises at least one single-phase charger for recharging the at least one rechargeable electric battery by connection to a single-phase power supply network and in that the power generator is intended to be connected to at least one of the chargers to recharge the battery when the power generator is mounted in the location . - a frame equipped with at least two front wheels and at least two rear wheels allowing the translation of the aerial work platform along the ground, - a working platform , - a lifting mechanism for the working platform , which is mounted on the frame , - at least one first electric motor (M1) for providing the driving power to move the aerial work platform along the ground, - at least one second electric motor (M2) for providing the driving power to operate the lifting mechanism of the working platform , - at least one rechargeable electric battery for powering the at least one first and the at least one second electric motor (M1, M2), - the driving power for moving the aerial work platform along the ground is always provided exclusively by the at least one first electric motor (M1), and - the driving power for actuating the lifting mechanism of the work platform is always provided exclusively by the at least one second electric motor (M2), - a front axle equipped with the two front wheels and a rear axle equipped with the two rear wheels , at least one of the axles being a transmission axle for transmitting the driving force of the at least one first electric motor (M1) to the corresponding wheels, and - a location provided for the mounting in a removable manner of a power generator ,
A method of operating a small form factor pluggable, SFP, module in a communication network , the method, performed at the module, comprising: receiving a data packet from a first networking equipment , the packet comprising a header portion and a data portion ; inspecting at least part of the data portion of the data packet; selectively modifying the header portion of the data packet responsive to the inspection of at least part of the data portion of the data packet; forwarding the modified data packet to a second networking equipment . receiving a data packet from a first networking equipment , the packet comprising a header portion and a data portion ; inspecting at least part of the data portion of the data packet; selectively modifying the header portion of the data packet responsive to the inspection of at least part of the data portion of the data packet; forwarding the modified data packet to a second networking equipment .
A container (1; 520; 620; 720; 820; 920; 1020) for holding paint comprising at least two fluid ports (830, 831; 930, 931; 1030, 1031), wherein the container (1; 520; 620; 720; 820; 920; 1020) has a body that is shape self supporting and is a non-rigid construction and at least one fluid port (830; 930; 1030) is a separate part (825; 925) from the body of the container (1; 520; 620; 720; 820; 920; 1020), wherein the separate part fluid port (830; 930; 1030) is a vent for air movement, wherein the container (1; 520; 620; 720; 820; 920; 1020) comprises a valve assembly that is configured to open and close the vent , wherein the valve assembly includes at least one first element , wherein the first element has a first side (30-1; 952a; 952b; 952c; 952d) that is bonded to at least one of a container base (21; 821; 921; 1021) and a container sidewall (22; 822; 922; 1022).
Apparatus for treating a respiratory disorder in a patient, comprising: a pressure generator configured to supply a flow of air at positive pressure to an airway of the patient through a patient interface; a sensor (4272; 4274) configured to generate a signal representative of respiratory flow rate of the patient; and a controller (4230; 4240); characterized in that the controller is configured to: control the pressure generator to provide to the patient interface a ventilation therapy having a base pressure, compute a measure of ventilation of the patient from the signal representative of respiratory flow rate, compute a measure of flow limitation from an inspiratory portion of the respiratory flow rate signal, compute a ratio of the measure of ventilation and an expected normal ventilation, and adjust a set point for the base pressure of the ventilation therapy based on the measure of flow limitation, wherein the adjustment further depends on a comparison between the ratio and a relative ventilation threshold that increases as the measure of flow limitation increases. a pressure generator configured to supply a flow of air at positive pressure to an airway of the patient through a patient interface; a sensor (4272; 4274) configured to generate a signal representative of respiratory flow rate of the patient; and a controller (4230; 4240); characterized in that the controller is configured to: control the pressure generator to provide to the patient interface a ventilation therapy having a base pressure, compute a measure of ventilation of the patient from the signal representative of respiratory flow rate, compute a measure of flow limitation from an inspiratory portion of the respiratory flow rate signal, compute a ratio of the measure of ventilation and an expected normal ventilation, and adjust a set point for the base pressure of the ventilation therapy based on the measure of flow limitation, wherein the adjustment further depends on a comparison between the ratio and a relative ventilation threshold that increases as the measure of flow limitation increases. control the pressure generator to provide to the patient interface a ventilation therapy having a base pressure, compute a measure of ventilation of the patient from the signal representative of respiratory flow rate, compute a measure of flow limitation from an inspiratory portion of the respiratory flow rate signal, compute a ratio of the measure of ventilation and an expected normal ventilation, and adjust a set point for the base pressure of the ventilation therapy based on the measure of flow limitation, wherein the adjustment further depends on a comparison between the ratio and a relative ventilation threshold that increases as the measure of flow limitation increases.
An electric current measuring apparatus comprising first and second Rogowski current sensors each adapted to measure an alternating electric current in first and second electrical conductors , each of the first and second sensors comprising coils electrically connected in series to form, respectively, first and second measuring circuits, each coil extending along a longitudinal axis (X201, X202, X203, X204, X211, X213, X214), the coils of a given sensor being adjoined to each other so as to delimit a central zone of that sensor to receive the corresponding electrical conductor , the coils of a given sensor having their longitudinal axes forming a closed polygonal contour (C20, C21) surrounding this central zone of this sensor, one of the coils being common to the first and second sensors , that coil being electrically connected to the first and second measuring circuits, the longitudinal axis (X204) of that coil belonging to the first and second polygonal contours (C20, C21), the measuring apparatus being characterised in that the polygonal contour (C20, C21) is a closed polygonal contour.
A method of wireless communication performed by a base station, comprising: transmitting a bandwidth value for a machine type communication, MTC, user equipment, UE, wherein the bandwidth value is a first bandwidth value when the MTC UE is configured to use a first carrier associated with a first radio access technology and wherein the bandwidth value is a second bandwidth value when the MTC UE is configured to use a second carrier associated with a second radio access technology; and communicating with the MTC UE using the bandwidth value, wherein communicating with the MTC UE using the bandwidth value further comprises: communicating with the MTC UE using frequency hopping, wherein, when a first frequency hop is contained within a bandwidth of the first carrier, all frequency hops for the MTC UE are contained within the bandwidth of the first carrier, and when the first frequency hop is outside of the bandwidth of the first carrier, all frequency hops for the MTC UE are outside of the bandwidth of the first carrier. transmitting a bandwidth value for a machine type communication, MTC, user equipment, UE, wherein the bandwidth value is a first bandwidth value when the MTC UE is configured to use a first carrier associated with a first radio access technology and wherein the bandwidth value is a second bandwidth value when the MTC UE is configured to use a second carrier associated with a second radio access technology; and communicating with the MTC UE using the bandwidth value, wherein communicating with the MTC UE using the bandwidth value further comprises: communicating with the MTC UE using frequency hopping, wherein, when a first frequency hop is contained within a bandwidth of the first carrier, all frequency hops for the MTC UE are contained within the bandwidth of the first carrier, and when the first frequency hop is outside of the bandwidth of the first carrier, all frequency hops for the MTC UE are outside of the bandwidth of the first carrier.
A loosening part capturing device for a steam generator of a pressurized water reactor nuclear power plant, arranged on a top plate of a sludge collector , the top plate being provided with a plurality of steam and water separator rising cylinders wherein capturing enclosing plates fixedly connected to the top plate are provided between every adjacent steam and water separator rising cylinders on the periphery of the top plate , two ends of each capturing enclosing plate are respectively fixedly connected to outer surfaces of the steam and water separator rising cylinders , and one end of each capturing enclosing plates afar from the top plate is provided with a folding plate extending towards a center of the top plate , characterized in that the top plate is provided with center holes and circumferential holes , the capturing enclosing plates are located inside the circumferential holes .
A method comprising: - providing acquisition data of a patient, comprising at least acquisition data of a bone structure of the patient in a given functional position, - providing a knowledge base , comprising at least data related to structures of the same type as the bone structure of the patient, - determining, at least from said acquisition data, a patient-specific three-dimensional geometry of the bone structure, - determining, from said acquisition data and said knowledge base, patient-specific mechanical characteristics of the bone structure, - determining, at least from the acquisition data, a patient-specific position-specific mechanical load (F) applied to the bone structure in said functional given position, - assembling the three-dimensional geometry, the mechanical characteristics and the mechanical load into a patient-specific position-specific finite-element model of the bone structure. - providing acquisition data of a patient, comprising at least acquisition data of a bone structure of the patient in a given functional position, - providing a knowledge base , comprising at least data related to structures of the same type as the bone structure of the patient, - determining, at least from said acquisition data, a patient-specific three-dimensional geometry of the bone structure, - determining, from said acquisition data and said knowledge base, patient-specific mechanical characteristics of the bone structure, - determining, at least from the acquisition data, a patient-specific position-specific mechanical load (F) applied to the bone structure in said functional given position, - assembling the three-dimensional geometry, the mechanical characteristics and the mechanical load into a patient-specific position-specific finite-element model of the bone structure.