mhurhangee/patent-ind-claim-en huggingface dataset:
A porous body quality inspection apparatus for a porous body to be applied to a fuel cell stack, the porous body quality inspection apparatus comprising: a measuring part for measuring a contact resistance between the porous body and a gas diffusion layer ; a pressurizing part for pressurizing a pressure-sensitive discoloration base material on the porous body ; an image mapping part for calculating a contact area between the pressure-sensitive discoloration base material and the porous body based on the discolored region of the pressurized pressure-sensitive discoloration base material ; characterized by a transporting part for transporting the porous body and the pressure-sensitive discoloration base material , and an operation part for performing an operation of an interfacial contact resistance between the porous body and the gas diffusion layer on the basis of the contact resistance and the contact area, wherein the operation part performs an operation of an interfacial contact resistance by Equation 1 below: ICR = R BP | GDL × AC actual wherein, ICR is an interfacial contact resistance between the porous body and the gas diffusion layer , R BP|GDL is a contact resistance between the porous body and the gas diffusion layer , and AC actual is a contact area between the pressure-sensitive discoloration base material and the porous body calculated based on the discolored region of the pressurized pressure-sensitive discoloration base material . a measuring part for measuring a contact resistance between the porous body and a gas diffusion layer ; a pressurizing part for pressurizing a pressure-sensitive discoloration base material on the porous body ; an image mapping part for calculating a contact area between the pressure-sensitive discoloration base material and the porous body based on the discolored region of the pressurized pressure-sensitive discoloration base material ; characterized by a transporting part for transporting the porous body and the pressure-sensitive discoloration base material , and an operation part for performing an operation of an interfacial contact resistance between the porous body and the gas diffusion layer on the basis of the contact resistance and the contact area, wherein the operation part performs an operation of an interfacial contact resistance by Equation 1 below: ICR = R BP | GDL × AC actual wherein, ICR is an interfacial contact resistance between the porous body and the gas diffusion layer , R BP|GDL is a contact resistance between the porous body and the gas diffusion layer , and AC actual is a contact area between the pressure-sensitive discoloration base material and the porous body calculated based on the discolored region of the pressurized pressure-sensitive discoloration base material .
Method for the automatic monitoring of a hydraulic circuit operating in a system for the movement of lifts or goods lifts comprising at least one cabin and at least two electrically controlled hydraulic valves arranged in series, said method comprising: - providing at least one position sensing device near at least one stopping plane of said at least one cabin ; - providing at least one control device associated with each of said at least two electrically controlled hydraulic valves arranged in series; - receiving the signals detected by the control devices associated with each valve ; - after receiving a signal generated by said at least one position sensing device, activating a comparative analysis of the signals coming from said control devices ; wherein said activation of a comparative analysis comprises the steps of: - comparing the values of said signals detected by the control devices ; - in the case in which at least one of the aforementioned detected signals identifies an open status of the relative valve , generating a system failure status report. - providing at least one position sensing device near at least one stopping plane of said at least one cabin ; - providing at least one control device associated with each of said at least two electrically controlled hydraulic valves arranged in series; - receiving the signals detected by the control devices associated with each valve ; - after receiving a signal generated by said at least one position sensing device, activating a comparative analysis of the signals coming from said control devices ; - comparing the values of said signals detected by the control devices ; - in the case in which at least one of the aforementioned detected signals identifies an open status of the relative valve , generating a system failure status report.
Driving circuit for a piezoelectric ultrasonic transducer in an ultrasonic transducer system , comprising: - a transformer having at least one primary-side winding (22, 22', 22"); - a switching unit having a semiconductor switch (24', 24") connected to the at least one primary-side winding (22, 22', 22") via a switched connection (A', A"); and - a control unit which is configured to alternately apply an operating voltage (U B ) to the at least one primary-side winding (22, 22', 22") or to disconnect it therefrom, - a protection circuit which is electrically coupled to the switched connection (A', A") and which has a Zener diode (ZD1) which limits a switch-off voltage at the switched connection (A', A") in terms of magnitude to a limiting voltage (U G ) which corresponds to at least twice the operating voltage. - a transformer having at least one primary-side winding (22, 22', 22"); - a switching unit having a semiconductor switch (24', 24") connected to the at least one primary-side winding (22, 22', 22") via a switched connection (A', A"); and - a control unit which is configured to alternately apply an operating voltage (U B ) to the at least one primary-side winding (22, 22', 22") or to disconnect it therefrom, - a protection circuit which is electrically coupled to the switched connection (A', A") and which has a Zener diode (ZD1) which limits a switch-off voltage at the switched connection (A', A") in terms of magnitude to a limiting voltage (U G ) which corresponds to at least twice the operating voltage.
Side channel blower, in particular secondary air blower for an internal combustion engine, comprising a housing in which an outlet is formed, a first housing part in which an axial inlet is formed which opens into a first substantially annularly extending conveying channel via an inlet region having a diameter (d), an impeller which is configured to be driven via a drive unit , is rotatably supported in the housing and comprises conveyor blades which cooperate with the opposing conveying channel (12; 14), an interruption region between the inlet and the outlet , in which the conveying channel (12; 14) is interrupted in the circumferential direction, and a recess which is formed at the interruption region in the first housing part upstream of the inlet region , seen in the direction of rotation of the impeller , and which is in fluid communication with the inlet region , wherein the depth of the recess increases from the upper edge of the interruption region directed to the impeller to the inlet region , characterized in that the diameter (d) of the inlet region is larger than the width (b) of the conveying channel , and the shortest distance of an inner edge of the inlet region to the rotary axis is equal to the distance of the inner edge of the conveying channel to the rotary axis.
Method for generating a preview of an image in a print job comprising the steps of: • creating (s402, s604) a preview RIP-job in a RIP-job queue , the RIP-job queue queueing in first-in-first-out order RIP-jobs (351-358) to be submitted to and processed by a raster image processor , and the preview RIP-job arranged to register images to be submitted to the raster image processor for generating a preview of the image , and • registering (s404) the image in the preview RIP-job in order for the image to be submitted to the raster image processor , characterised in that the preview RIP-job is created (s402, s604) at the head of the RIP-job queue , and the preview RIP-job is not removed from the RIP-job queue upon the preview RIP-job becoming empty, the RIP job queue providing an image from the first non-empty RIP-job starting from the head of the RIP-job queue to the raster image processor. • creating (s402, s604) a preview RIP-job in a RIP-job queue , the RIP-job queue queueing in first-in-first-out order RIP-jobs (351-358) to be submitted to and processed by a raster image processor , and the preview RIP-job arranged to register images to be submitted to the raster image processor for generating a preview of the image , and • registering (s404) the image in the preview RIP-job in order for the image to be submitted to the raster image processor , characterised in that the preview RIP-job is created (s402, s604) at the head of the RIP-job queue , and the preview RIP-job is not removed from the RIP-job queue upon the preview RIP-job becoming empty, the RIP job queue providing an image from the first non-empty RIP-job starting from the head of the RIP-job queue to the raster image processor.
An oscillating positive expiratory pressure system comprising: an oscillating positive expiratory pressure device comprising a chamber ; an input component in communication with the chamber , wherein the input component is operative to sense pressure and generate an input signal correlated to the pressure; the input component comprising a membrane moving in response to changes in pressure within the chamber , a processor operative to receive the input signal from the input component and generate an output signal; and an output component operative to receive the output signal, and display an output. an oscillating positive expiratory pressure device comprising a chamber ; an input component in communication with the chamber , wherein the input component is operative to sense pressure and generate an input signal correlated to the pressure; the input component comprising a membrane moving in response to changes in pressure within the chamber , a processor operative to receive the input signal from the input component and generate an output signal; and an output component operative to receive the output signal, and display an output.
A system for facilitating creation of a radiation treatment plan for a given patient, the system comprising: a patient data module configured to receive imaging data that includes a representation of an interior of a patient who is to receive radiation treatment; a contour detection module configured to repeatedly detect a contour identifying one or more anatomical structures and at least one tumor volume represented by the imaging data; and an outcome recommendation module configured to: repeatedly compute a set of recommended treatment outcomes for the patient based on the contour and previously administered treatment outcomes, receive a selection from a user of a given recommended treatment outcome, and provide the selected treatment outcome to a system for generating a treatment plan for the patient that achieves the selected outcome, characterised in that : the contour detection module is configured to detect the contour by determining that a previously-detected contour has been edited and detecting a new contour identifying one or more anatomical structures and at least one tumor volume represented by the imaging data. a patient data module configured to receive imaging data that includes a representation of an interior of a patient who is to receive radiation treatment; a contour detection module configured to repeatedly detect a contour identifying one or more anatomical structures and at least one tumor volume represented by the imaging data; and an outcome recommendation module configured to: repeatedly compute a set of recommended treatment outcomes for the patient based on the contour and previously administered treatment outcomes, receive a selection from a user of a given recommended treatment outcome, and provide the selected treatment outcome to a system for generating a treatment plan for the patient that achieves the selected outcome, repeatedly compute a set of recommended treatment outcomes for the patient based on the contour and previously administered treatment outcomes, receive a selection from a user of a given recommended treatment outcome, and provide the selected treatment outcome to a system for generating a treatment plan for the patient that achieves the selected outcome,
A remote control assembly, said remote control assembly comprising: a sheath having a longitudinal axis (A) along a length thereof and defining an interior; a liner disposed within said interior and coupled to said sheath ; and a wire having an outer surface with said wire disposed between and coupled to said sheath and said liner ; wherein said outer surface of said wire defines a plurality of notches separated into a first group of notches and a second group of notches with each notch within each of said first and second groups defining a first distance therebetween substantially along said longitudinal axis (A), and said first group of notches and said second group of notches defining a second distance therebetween along the longitudinal axis (A), with said second distance being greater than said first distance . a sheath having a longitudinal axis (A) along a length thereof and defining an interior; a liner disposed within said interior and coupled to said sheath ; and a wire having an outer surface with said wire disposed between and coupled to said sheath and said liner ; wherein said outer surface of said wire defines a plurality of notches separated into a first group of notches and a second group of notches with each notch within each of said first and second groups defining a first distance therebetween substantially along said longitudinal axis (A), and said first group of notches and said second group of notches defining a second distance therebetween along the longitudinal axis (A), with said second distance being greater than said first distance .
A communication method, comprising: determining (S301), by a first access network device based on a first list, a target cell that belongs to a target first network, wherein the first list comprises an identity of at least one first network to which a terminal device subscribes, and the first network is a private network; and sending (S302, S505), by the first access network device, a first message to a second access network device to which the target cell belongs, wherein the first message indicates the second access network device to prepare to hand over the terminal device to the target cell, the first message carries a second list, the second list is used to enable the second access network device to determine the identity of the at least one first network to which the terminal device subscribes, wherein the second list includes some or all identities in the first list. determining (S301), by a first access network device based on a first list, a target cell that belongs to a target first network, wherein the first list comprises an identity of at least one first network to which a terminal device subscribes, and the first network is a private network; and sending (S302, S505), by the first access network device, a first message to a second access network device to which the target cell belongs, wherein the first message indicates the second access network device to prepare to hand over the terminal device to the target cell, the first message carries a second list, the second list is used to enable the second access network device to determine the identity of the at least one first network to which the terminal device subscribes, wherein the second list includes some or all identities in the first list.
A computer-implemented method comprising: receiving, by a computing device that uses voice-based speaker identification, data identifying a user; prompting the user to confirm whether a previously received utterance was properly identified, properly rejected, falsely identified, or falsely rejected using voice-based speaker identification, wherein the previously received utterance includes a predefined hotword; receiving, from the user, data indicating that the previously received utterance was properly identified, properly rejected, falsely identified, or falsely rejected; characterized in that in response to receiving the data indicating that the previously received utterance was falsely rejected, using audio data corresponding to the previously received utterance to modify a voice template for performing voice-based speaker identification on subsequently received utterances, wherein the subsequently received utterances include the predefined hotword. receiving, by a computing device that uses voice-based speaker identification, data identifying a user; prompting the user to confirm whether a previously received utterance was properly identified, properly rejected, falsely identified, or falsely rejected using voice-based speaker identification, wherein the previously received utterance includes a predefined hotword; receiving, from the user, data indicating that the previously received utterance was properly identified, properly rejected, falsely identified, or falsely rejected; characterized in that in response to receiving the data indicating that the previously received utterance was falsely rejected, using audio data corresponding to the previously received utterance to modify a voice template for performing voice-based speaker identification on subsequently received utterances, wherein the subsequently received utterances include the predefined hotword.
A food filling deposition system comprising: • a deposition nozzle (A) provided with a piston connected to a valve shaft and operated in a vertical direction for opening and closing a fluid channel in order to perform a deposition; a solenoid valve powered to move the valve shaft vertically for controlling the amount to be deposited by adjusting the powering duration and the valve duration; a fitting block connecting the solenoid valve to a nozzle body ; and a nozzle chamber arranged in the nozzle body for allowing a food fluid to be deposited to pass through a distribution manifold ; and • a manifold (B) provided with nozzle ports arranged on the distribution manifold and the deposition nozzle (A) for allowing food fluid to be deposited to flow from the distribution manifold to each nozzle (A); pressure holes arranged on a pipe for allowing the fluid to flow into the distribution manifold and providing pressure; a wall through which a refrigerant flows in situations where it is desired to maintain the temperature of the fluid; a grip for demounting the deposition nozzles (A); and a distribution manifold to provide heat exchange for the deposition nozzles (A) for the fluids requiring temperature control, characterized in that the food filling deposition system comprises a leaktight connection to the valve shaft for sealing of the upper part of the deposition nozzle (A) by means of a rubber gasket suitable for food, a washer and a nut . • a deposition nozzle (A) provided with a piston connected to a valve shaft and operated in a vertical direction for opening and closing a fluid channel in order to perform a deposition; a solenoid valve powered to move the valve shaft vertically for controlling the amount to be deposited by adjusting the powering duration and the valve duration; a fitting block connecting the solenoid valve to a nozzle body ; and a nozzle chamber arranged in the nozzle body for allowing a food fluid to be deposited to pass through a distribution manifold ; and • a manifold (B) provided with nozzle ports arranged on the distribution manifold and the deposition nozzle (A) for allowing food fluid to be deposited to flow from the distribution manifold to each nozzle (A); pressure holes arranged on a pipe for allowing the fluid to flow into the distribution manifold and providing pressure; a wall through which a refrigerant flows in situations where it is desired to maintain the temperature of the fluid; a grip for demounting the deposition nozzles (A); and a distribution manifold to provide heat exchange for the deposition nozzles (A) for the fluids requiring temperature control,
A health monitor circuit for an electric machine , the health monitor circuit comprising: a plurality of sensors including a current transformer configured to be electromagnetically coupled to an electrical conductor that feeds a stator winding of the electric machine , wherein the current transformer enables measurement of a stator current conducted through the stator winding ; a rectifier coupled to the current transformer and configured to convert an alternating current (AC) signal generated by the current transformer to a direct current (DC) signal to supply power for the health monitor circuit ; a memory device ; and a microprocessor coupled to the memory device and the plurality of sensors , the microprocessor configured to periodically collect a stator current measurement from the current transformer and write the stator current measurement to the memory device by controlling alternating between first periods of supplying power for the health monitor circuit and second periods of receiving stator current measurements at a sampling frequency of at least a frequency of an AC signal conducted by the stator winding to collect the stator current measurement at least once per cycle of the AC signal supplied to the stator winding before switching to supplying power for the health monitor circuit . a plurality of sensors including a current transformer configured to be electromagnetically coupled to an electrical conductor that feeds a stator winding of the electric machine , wherein the current transformer enables measurement of a stator current conducted through the stator winding ; a rectifier coupled to the current transformer and configured to convert an alternating current (AC) signal generated by the current transformer to a direct current (DC) signal to supply power for the health monitor circuit ; a memory device ; and a microprocessor coupled to the memory device and the plurality of sensors , the microprocessor configured to periodically collect a stator current measurement from the current transformer and write the stator current measurement to the memory device by controlling alternating between first periods of supplying power for the health monitor circuit and second periods of receiving stator current measurements at a sampling frequency of at least a frequency of an AC signal conducted by the stator winding to collect the stator current measurement at least once per cycle of the AC signal supplied to the stator winding before switching to supplying power for the health monitor circuit .
A method of producing pluripotent three-dimensional cell clusters and optionally differentiating the pluripotent three-dimensional cell clusters comprising the steps of: a. growing pluripotent stem cells in a planar adherent culture, b. expanding the pluripotent stem cells to aggregated cell clusters, and c. transferring the clusters of pluripotent stem cells from the planar adherent culture to a dynamic suspension culture using an enzyme, wherein the pluripotent three-dimensional cell clusters are formed, wherein the pluripotent clusters of cells are cultured and expanded in the dynamic suspension culture without losing pluripotency, and wherein the method optionally further comprises differentiating the pluripotent three-dimensional cell clusters. a. growing pluripotent stem cells in a planar adherent culture, b. expanding the pluripotent stem cells to aggregated cell clusters, and c. transferring the clusters of pluripotent stem cells from the planar adherent culture to a dynamic suspension culture using an enzyme,