mhurhangee/ep-ind-claims huggingface dataset:
A method of determining a source of a leak in a pneumatic control valve actuator comprising: sensing travel of an actuator rod, the actuator rod being coupled to an actuator of the control valve; sensing a pressure applied to a chamber of the actuator; detecting an existence of an actuator gas leak based on sensor data of the applied actuator pressure and actuator rod travel; if a gas leak is detected, determining whether a flow switch coupled to an actuator vent indicates venting of exhaust gas through the actuator vent; if the flow switch indicates no venting of exhaust gas, generating an indication of a pneumatic tubing leak; and if the flow switch indicates venting of exhaust gas and the control valve is sensed to be moving, then generating an indication of an actuator diaphragm failure. sensing travel of an actuator rod, the actuator rod being coupled to an actuator of the control valve; sensing a pressure applied to a chamber of the actuator; detecting an existence of an actuator gas leak based on sensor data of the applied actuator pressure and actuator rod travel; if a gas leak is detected, determining whether a flow switch coupled to an actuator vent indicates venting of exhaust gas through the actuator vent; if the flow switch indicates no venting of exhaust gas, generating an indication of a pneumatic tubing leak; and if the flow switch indicates venting of exhaust gas and the control valve is sensed to be moving, then generating an indication of an actuator diaphragm failure.
A composition comprising: a microcapsule comprising a core portion and a shell portion, wherein the core portion comprises an active pharmaceutical ingredient in an amorphous distribution in an hydrophilic excipient, wherein the hydrophilic excipient is polyethylene glycol; wherein the shell portion comprises a hydrophobic matrix, wherein the hydrophobic matrix is a lipid, and from 1% to 25% by weight of a pH-responsive material based on the total weight of the shell portion, wherein the pH-responsive material is insoluble at a pH of greater than 5.0 or is otherwise insoluble in saliva and is soluble at a pH of less than 5.0 and comprises butylated methacrylate copolymer; and wherein the shell portion encapsulates the core portion. a microcapsule comprising a core portion and a shell portion, wherein the core portion comprises an active pharmaceutical ingredient in an amorphous distribution in an hydrophilic excipient, wherein the hydrophilic excipient is polyethylene glycol; wherein the shell portion comprises a hydrophobic matrix, wherein the hydrophobic matrix is a lipid, and from 1% to 25% by weight of a pH-responsive material based on the total weight of the shell portion, wherein the pH-responsive material is insoluble at a pH of greater than 5.0 or is otherwise insoluble in saliva and is soluble at a pH of less than 5.0 and comprises butylated methacrylate copolymer; and wherein the shell portion encapsulates the core portion.
A fault tolerance processing method, wherein the method is applied to a server, the server communicates with an external controller by a memory-semantic network protocol, and the external controller is located outside the server; and the method comprises: sending, by the server, a data read packet to the external controller, wherein the data read packet is used to request the external controller to read data in an indicated storage location, and a packet format of the data read packet complies with a packet format specified in the memory-semantic network protocol; receiving, by the server, indication information sent by the external controller, wherein the indication information is used to indicate a response status of the external controller to the data read packet; and determining, by the server, the response status of the external controller to the data read packet based on the indication information, and performing fault tolerance processing when the response status is an abnormal response; wherein the abnormal response is a response timeout or a target data read failure; wherein the fault tolerance processing comprises degraded read; wherein performing the degraded read comprises reading, by the server, further data associated with the data and check code from another server, and recovering, by the server, the data based on the further data and the check code, and wherein the further data is used together with the data as a whole to generate the check code. sending, by the server, a data read packet to the external controller, wherein the data read packet is used to request the external controller to read data in an indicated storage location, and a packet format of the data read packet complies with a packet format specified in the memory-semantic network protocol; receiving, by the server, indication information sent by the external controller, wherein the indication information is used to indicate a response status of the external controller to the data read packet; and determining, by the server, the response status of the external controller to the data read packet based on the indication information, and performing fault tolerance processing when the response status is an abnormal response; wherein the abnormal response is a response timeout or a target data read failure; wherein the fault tolerance processing comprises degraded read; wherein performing the degraded read comprises reading, by the server, further data associated with the data and check code from another server, and recovering, by the server, the data based on the further data and the check code, and wherein the further data is used together with the data as a whole to generate the check code.
A mounted reversible plough comprising a frame and an attachment member for attaching said frame to a tractor, said frame carrying at least a first ploughing element and at least a second ploughing element which are mutually opposing and the frame being rotatably secured to said attachment member about an inversion axis in order to invert said frame, said plough further comprising a wheel which is configured for adjusting a working depth of the plough in two opposing operating positions of the wheel, in which said first ploughing element and second ploughing element are operative, respectively, an arm which, on the one hand, supports said wheel and, on the other hand, is rotatably connected to a support of said frame about an oscillation axis which is transverse with respect to said inversion axis so as to allow an oscillation of said arm between the first and the second operating position of the wheel and a first stop device and a second stop device which are configured so as to limit the oscillation of the arm in said first and said second operating positions, respectively, so as to define a corresponding working depth of the plough in said operating positions, characterized in that said first and second stop devices (16a, 16b) are connected to a first oscillating element and a second oscillating element, respectively, said first and second oscillating elements (5a, 5b) being hinged to said support and being kinematically connected to each other in an adjustable manner by means of an adjustment member which is configured to transmit a movement of one of the oscillating elements (5a, 5b) to the other oscillating element (5b, 5a) so as to symmetrically adjust the working depth of the opposing ploughing elements (6a, 6b).
A method, comprising: receiving, via a locking device, a first credential of a custodian; validating the first credential; determining a random period of time based upon a time-delay policy when the first credential is validated; and executing a lock release protocol upon expiration of the random period of time; wherein said executing a lock release protocol comprises: requesting, via the locking device, a second credential of the custodian within a specified time period upon expiration of the random period of time; receiving, via the locking device, the second credential of the custodian within the specified time period; validating the second credential; and executing a lock release command to cause the locking device to unlock. receiving, via a locking device, a first credential of a custodian; validating the first credential; determining a random period of time based upon a time-delay policy when the first credential is validated; and executing a lock release protocol upon expiration of the random period of time; wherein said executing a lock release protocol comprises: requesting, via the locking device, a second credential of the custodian within a specified time period upon expiration of the random period of time; receiving, via the locking device, the second credential of the custodian within the specified time period; validating the second credential; and executing a lock release command to cause the locking device to unlock.
Inseparable single-piece timepiece component including a position adjustable mechanism having a rigid structure carrying, by means of at least one resilient strip, a position adjustable component including an indexing means arranged to cooperate with a complementary indexing means comprised in an adjustment mechanism, wherein said adjustment mechanism is incorporated in said inseparable single-piece component, characterized in that said complementary indexing means is mounted disengageable from the indexing means and can be clamped in a position of cooperation with said indexing means by a clamping mechanism movable between at least one coupled position and at least one uncoupled position, distinct from said indexing means and from said complementary indexing means and resiliently secured to said structure.
A method of forming a composite feature having discontinuous reinforcement fibers, comprising: producing a plurality of resin infused fiber segments each having unidirectional reinforcing fibers, wherein the fibers extend substantially parallel to each other, and wherein producing the resin infused fiber segments comprises chopping fiber pre-preg into individual resin infused fiber segments; placing the resin infused fiber segments on a substrate by introducing the resin infused fiber segments into an airstream and using the airstream to stream the resin infused fiber segments from an applicator onto the substrate; and after the resin infused fiber segments have been placed on the substrate, rotating the resin infused fiber segments so as to arrange the resin infused fiber segments such that the reinforcing fibers of the resin infused fiber segments placed on the substrate are substantially aligned relative to a desired reference orientation. producing a plurality of resin infused fiber segments each having unidirectional reinforcing fibers, wherein the fibers extend substantially parallel to each other, and wherein producing the resin infused fiber segments comprises chopping fiber pre-preg into individual resin infused fiber segments; placing the resin infused fiber segments on a substrate by introducing the resin infused fiber segments into an airstream and using the airstream to stream the resin infused fiber segments from an applicator onto the substrate; and after the resin infused fiber segments have been placed on the substrate, rotating the resin infused fiber segments so as to arrange the resin infused fiber segments such that the reinforcing fibers of the resin infused fiber segments placed on the substrate are substantially aligned relative to a desired reference orientation.
Image reproduction device for document processing, the device comprising - an input unit for providing sheets, - an output unit for receiving processed sheets, - a digital imaging unit for applying an image pattern to a sheet, - a sheet conveying system for conveying a sheet at a processing speed from the input unit, past the digital imaging unit and to the output unit, - a control unit, characterised in that: - the control unit is arranged to control the sheet conveying system and the digital imaging unit for applying an image pattern, and to control the speed of conveying and processing at any one of a plurality of processing speeds, and arranged to -- select an initial processing speed from a range of processing speeds and controlling the sheet conveying system and the digital imaging unit for applying an image pattern to operate at that speed, wherein the control unit that is further arranged for -- in reaction to changing operational conditions, gradually changing the processing speed of the sheet conveying system and the digital imaging unit within the range of processing speeds while sheets are being conveyed or while the digital imaging unit is in the process of applying an image pattern. - an input unit for providing sheets, - an output unit for receiving processed sheets, - a digital imaging unit for applying an image pattern to a sheet, - a sheet conveying system for conveying a sheet at a processing speed from the input unit, past the digital imaging unit and to the output unit, - a control unit, - the control unit is arranged to control the sheet conveying system and the digital imaging unit for applying an image pattern, and to control the speed of conveying and processing at any one of a plurality of processing speeds, and arranged to -- select an initial processing speed from a range of processing speeds and controlling the sheet conveying system and the digital imaging unit for applying an image pattern to operate at that speed, wherein the control unit that is further arranged for -- in reaction to changing operational conditions, gradually changing the processing speed of the sheet conveying system and the digital imaging unit within the range of processing speeds while sheets are being conveyed or while the digital imaging unit is in the process of applying an image pattern. -- select an initial processing speed from a range of processing speeds and controlling the sheet conveying system and the digital imaging unit for applying an image pattern to operate at that speed, -- in reaction to changing operational conditions, gradually changing the processing speed of the sheet conveying system and the digital imaging unit within the range of processing speeds while sheets are being conveyed or while the digital imaging unit is in the process of applying an image pattern.
Method of producing a fluoropolymer article comprising subjecting a composition to additive processing in an additive processing device containing at least one energy source, wherein the composition comprises fluoropolymer particles and a binder material capable of binding the fluoropolymer particles to form a layer in a part of the composition that has been exposed to the energy source of the additive processing device and the method comprises subjecting a part of the composition to exposure of the energy source to form a layer and wherein the fluoropolymer is a fluoroelastomer.
A multiple-input, multiple-output wireless communications three-hop repeater, the repeater comprising a receiver end and a transmitter end with a wireless link between the receiver end and the transmitter end, the receiver end comprising: at least first and second repeater receiver antennas, each configured to receive transmit branch signals transmitted from each transmit branch of a multiple-output wireless communication device; a plurality of channel estimators, wherein each channel estimator is dedicated for a respective transmit branch and is connected with a respective receiver branch channel connected to at least first or second repeater receiver antennas, each channel estimator being configured to perform channel estimation on one of the transmit branch signals to produce an estimated channel impulse response of the respective transmit branch signal, the output of each channel estimator for a given transmit branch being used to produce a corrected transmit branch signal associated with each receiver branch channel; and a plurality of combiners, each one associated with a receiver branch channel, to combine the corrected transmit branch signal with other transmit branch signals from other receiver branch channels that have been corrected by their respective channel estimators for the same transmit branch, to produce combined corrected transmit branch signals, the transmitter end comprising a plurality of repeater transmitter antennas, wherein each repeater transmitter antenna is configured to transmit a combined corrected transmit branch signal. at least first and second repeater receiver antennas, each configured to receive transmit branch signals transmitted from each transmit branch of a multiple-output wireless communication device; a plurality of channel estimators, wherein each channel estimator is dedicated for a respective transmit branch and is connected with a respective receiver branch channel connected to at least first or second repeater receiver antennas, each channel estimator being configured to perform channel estimation on one of the transmit branch signals to produce an estimated channel impulse response of the respective transmit branch signal, the output of each channel estimator for a given transmit branch being used to produce a corrected transmit branch signal associated with each receiver branch channel; and a plurality of combiners, each one associated with a receiver branch channel, to combine the corrected transmit branch signal with other transmit branch signals from other receiver branch channels that have been corrected by their respective channel estimators for the same transmit branch, to produce combined corrected transmit branch signals, the transmitter end comprising a plurality of repeater transmitter antennas, wherein each repeater transmitter antenna is configured to transmit a combined corrected transmit branch signal.
A method for controlling a rotational velocity of a cutting device, comprising: determining a present diameter of a cutting wheel of the cutting device; and adjusting a rotational velocity of the cutting wheel based on the present diameter to have a surface speed of the cutting wheel at substantially a pre-determined constant surface speed, characterised in that determining the present diameter comprises determining an amount of power used to maintain a present rotational velocity, wherein the power is electric power and wherein the determining the present diameter comprises determining a distance from a sensor to at least one of a surface of an item being cut by the cutting wheel and a member supporting the item, and the distance is used to determine the present diameter of the cutting wheel. determining a present diameter of a cutting wheel of the cutting device; and adjusting a rotational velocity of the cutting wheel based on the present diameter to have a surface speed of the cutting wheel at substantially a pre-determined constant surface speed, characterised in that determining the present diameter comprises determining an amount of power used to maintain a present rotational velocity, wherein the power is electric power and wherein the determining the present diameter comprises determining a distance from a sensor to at least one of a surface of an item being cut by the cutting wheel and a member supporting the item, and the distance is used to determine the present diameter of the cutting wheel.
A system including: a deployment device including a tubular trigger wire guide, a plurality of axial trigger wire apertures in the trigger wire guide, and at least one circumferential trigger wire aperture in the trigger wire guide; an expandable endoluminal prosthesis positioned on the deployment device; a plurality of axial trigger wires received within the trigger wire guide, each axial trigger wire extending through a corresponding one of the plurality of axial trigger wire apertures and exiting the trigger wire guide; and a circumferential trigger wire received within the trigger wire guide, the circumferential trigger wire extending through the circumferential trigger wire aperture and a single circumferential trigger wire loop exiting the trigger wire guide and at least partially encircling the prosthesis, the circumferential trigger wire engaged by the plurality of axial trigger wires and restraining at least a portion of the prosthesis in a compressed configuration; wherein each axial trigger wire exits the trigger wire guide at a first longitudinal position and reenters the trigger wire guide at a second longitudinal position proximal of the first longitudinal position, a portion of the axial trigger wire disposed external of the trigger wire guide including a curve, wherein a portion of the circumferential trigger wire disposed external of the trigger wire guide extends at least partially circumferentially around the prosthesis and is received between the curve of each of the plurality of axial trigger wires and an outer surface of the prosthesis. a deployment device including a tubular trigger wire guide, a plurality of axial trigger wire apertures in the trigger wire guide, and at least one circumferential trigger wire aperture in the trigger wire guide; an expandable endoluminal prosthesis positioned on the deployment device; a plurality of axial trigger wires received within the trigger wire guide, each axial trigger wire extending through a corresponding one of the plurality of axial trigger wire apertures and exiting the trigger wire guide; and a circumferential trigger wire received within the trigger wire guide, the circumferential trigger wire extending through the circumferential trigger wire aperture and a single circumferential trigger wire loop exiting the trigger wire guide and at least partially encircling the prosthesis, the circumferential trigger wire engaged by the plurality of axial trigger wires and restraining at least a portion of the prosthesis in a compressed configuration; wherein each axial trigger wire exits the trigger wire guide at a first longitudinal position and reenters the trigger wire guide at a second longitudinal position proximal of the first longitudinal position, a portion of the axial trigger wire disposed external of the trigger wire guide including a curve, wherein a portion of the circumferential trigger wire disposed external of the trigger wire guide extends at least partially circumferentially around the prosthesis and is received between the curve of each of the plurality of axial trigger wires and an outer surface of the prosthesis.