mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: capturing a plurality of radiographic images (62, 64) of a patient, each using a same geometric relationship relative to an x-ray source, the patient and a digital detector, a same energy and intensity of an x-ray beam emitted by the x-ray source and a same phase of the patient's respiratory cycle (Q1, Q2,... Q5); determining a change in the radiographic images (62, 64) of the patient based on the plurality of captured radiographic images (62, 64) of the patient; and automatically scheduling a point in time to capture a next radiographic image of the patient, wherein the capture of the next radiographic image is performed using the same geometric relationship; wherein the same phase of the patient's respiratory cycle (Q1, Q2,... Q5) is determined using a stereoscopic camera, and wherein the x-ray source is automatically activated at the automatically scheduled point in time to capture the next radiographic image of the patient at the same phase of the patient's respiratory cycle (Q1, Q2,... Q5). capturing a plurality of radiographic images (62, 64) of a patient, each using a same geometric relationship relative to an x-ray source, the patient and a digital detector, a same energy and intensity of an x-ray beam emitted by the x-ray source and a same phase of the patient's respiratory cycle (Q1, Q2,... Q5); determining a change in the radiographic images (62, 64) of the patient based on the plurality of captured radiographic images (62, 64) of the patient; and automatically scheduling a point in time to capture a next radiographic image of the patient, wherein the capture of the next radiographic image is performed using the same geometric relationship; wherein the same phase of the patient's respiratory cycle (Q1, Q2,... Q5) is determined using a stereoscopic camera, and wherein the x-ray source is automatically activated at the automatically scheduled point in time to capture the next radiographic image of the patient at the same phase of the patient's respiratory cycle (Q1, Q2,... Q5).
A modular electrosurgical generator platform, comprising: a power supply module configured to output power; a first energy module configured to receive the power and convert the power into a first waveform having a first phase, and to deliver the power in a first energy mode; a second energy module configured to receive the power and convert the power into a second waveform having a second phase, and to deliver the power in a second energy mode different to the first; a host controller module configured to control a type and a number of energy modalities provided by the generator platform; characterised by: a comparator for comparing the first phase of the first waveform with the second phase of the second waveform in one or more of a plurality of sub-periods; and an adjustment module for adjusting a relative phase between the first and second waveforms based on results obtained from the comparator to cause destructive interference of the first and second waveforms when the generator platform supports simultaneous activation of first and second energy modes. a power supply module configured to output power; a first energy module configured to receive the power and convert the power into a first waveform having a first phase, and to deliver the power in a first energy mode; a second energy module configured to receive the power and convert the power into a second waveform having a second phase, and to deliver the power in a second energy mode different to the first; a host controller module configured to control a type and a number of energy modalities provided by the generator platform; characterised by: a comparator for comparing the first phase of the first waveform with the second phase of the second waveform in one or more of a plurality of sub-periods; and an adjustment module for adjusting a relative phase between the first and second waveforms based on results obtained from the comparator to cause destructive interference of the first and second waveforms when the generator platform supports simultaneous activation of first and second energy modes. a comparator for comparing the first phase of the first waveform with the second phase of the second waveform in one or more of a plurality of sub-periods; and an adjustment module for adjusting a relative phase between the first and second waveforms based on results obtained from the comparator to cause destructive interference of the first and second waveforms when the generator platform supports simultaneous activation of first and second energy modes.
A method of making a medical device using additive manufacturing comprising the steps of: forming a plurality of layers of a first portion of the medical device using additive manufacturing; placing a first removable masking plate over the first portion, wherein the removable masking plate includes at least one opening aligned with a point of the first portion; forming at least one layer of a first connector on the first portion using additive manufacturing, wherein the first connector is formed in the at least one opening of the removable masking plate; forming a plurality of layers of a second portion of the medical device, wherein a first layer of the plurality of layers of the second portion is formed partially on the first connector and partially on the removable masking plate; and removing the first removable masking plate without adversely affecting the first portion, the second portion, and the first connector. forming a plurality of layers of a first portion of the medical device using additive manufacturing; placing a first removable masking plate over the first portion, wherein the removable masking plate includes at least one opening aligned with a point of the first portion; forming at least one layer of a first connector on the first portion using additive manufacturing, wherein the first connector is formed in the at least one opening of the removable masking plate; forming a plurality of layers of a second portion of the medical device, wherein a first layer of the plurality of layers of the second portion is formed partially on the first connector and partially on the removable masking plate; and removing the first removable masking plate without adversely affecting the first portion, the second portion, and the first connector.
Method for operating a device for the dosed supply of a liquid, at least having at least one pump for delivering the liquid, wherein the at least one pump has a pump housing with at least one inlet and at least one outlet, wherein an eccentric is arranged on the pump housing so as to be rotatable relative to the pump housing, wherein a deformable diaphragm is situated between the eccentric and the pump housing, which diaphragm, together with the pump housing, delimits a delivery path from the at least one inlet to the at least one outlet and forms at least one seal of the delivery path, wherein the at least one seal is displaceable along the delivery path by way of a movement of the eccentric for delivery purposes, and the pump has an electric drive for moving the eccentric, wherein the method comprises at least the following steps: a) detecting a demanded dose amount of liquid; b) activating the electric drive of the at least one pump, in order to move the at least one seal in a delivery direction from the inlet to the outlet for the purposes of delivering the liquid, through the application of an operating voltage to the electric drive; c) scheduling a stoppage of operation of the at least one pump when the delivered amount of liquid corresponds to the demanded dose amount; d) stopping the movement of the eccentric; e) maintaining a holding voltage at the electric drive, wherein, by means of the holding voltage, a holding torque is exerted on the eccentric and a movement of the eccentric counter to the delivery direction is prevented. a) detecting a demanded dose amount of liquid; b) activating the electric drive of the at least one pump, in order to move the at least one seal in a delivery direction from the inlet to the outlet for the purposes of delivering the liquid, through the application of an operating voltage to the electric drive; c) scheduling a stoppage of operation of the at least one pump when the delivered amount of liquid corresponds to the demanded dose amount; d) stopping the movement of the eccentric; e) maintaining a holding voltage at the electric drive, wherein, by means of the holding voltage, a holding torque is exerted on the eccentric and a movement of the eccentric counter to the delivery direction is prevented.
An over voltage response module for a brushless current-excited synchronous electric machine, comprising: an input configured to receive a power output value of the electric machine; a first output configured to drive a first switchable element at a first leg of an H bridge and a second output configured to drive a second switchable element at a second leg of the H bridge, the H bridge further including an exciter stator of the electric machine disposed between the first leg and the second leg; a third output configured to drive a third switchable element upstream of the H bridge, the third switchable element forming part of a buck converter; a controller module configured to compare the power output value with an over voltage condition of the electric machine, defining a first comparison, and in response to a determination an over voltage condition exists based on the first comparison: controllably operate the first switchable element to open, by way of the first output, and the second switchable element to open, by way of the second output, and after a predetermined period of time, compare the power output value with the over voltage condition of the electric machine, defining a second comparison; and in response to a determination the over voltage condition exists based on the second comparison, controllably operate the third switchable element to open. an input configured to receive a power output value of the electric machine; a first output configured to drive a first switchable element at a first leg of an H bridge and a second output configured to drive a second switchable element at a second leg of the H bridge, the H bridge further including an exciter stator of the electric machine disposed between the first leg and the second leg; a third output configured to drive a third switchable element upstream of the H bridge, the third switchable element forming part of a buck converter; a controller module configured to compare the power output value with an over voltage condition of the electric machine, defining a first comparison, and in response to a determination an over voltage condition exists based on the first comparison: controllably operate the first switchable element to open, by way of the first output, and the second switchable element to open, by way of the second output, and after a predetermined period of time, compare the power output value with the over voltage condition of the electric machine, defining a second comparison; and in response to a determination the over voltage condition exists based on the second comparison, controllably operate the third switchable element to open. controllably operate the first switchable element to open, by way of the first output, and the second switchable element to open, by way of the second output, and after a predetermined period of time, compare the power output value with the over voltage condition of the electric machine, defining a second comparison; and in response to a determination the over voltage condition exists based on the second comparison, controllably operate the third switchable element to open.
Heat store for storing thermal energy, comprising a container with a base, a cover and a horizontally extending longitudinal axis, wherein the container comprises a heat store material, and, for the inflow and/or outflow of a fluid, provision is made of a first opening and a second opening offset vertically with respect to the first opening, wherein the container comprises a first and second fluid-impermeable plate (42, 43), which are inclined with respect to an inflow and/or outflow direction (20, 21) of the fluid and are arranged on an inner side of the container, characterized in that the first plate is arranged on the cover and the second plate is arranged on the base, wherein the first plate forms a non-zero acute angle with the cover and the second plate forms the acute angle with the base.
A microfluidic device comprising: a plate having a first main surface that has an opening area in which a plurality of openings for injecting fluid are formed, a second main surface being the opposite side of the first main surface, and an outer side surface communicating the first main surface and the second main surface; wherein the plate is composed of a first substrate and a second substrate which are bonded together so that grooves serving as hollow-shaped channels are sandwiched between the two substrates (12, 13) and are connected to two openings, wherein the microfluidic device further comprises a reservoir that has at least one opening with a bottom and is capable of storing liquid, and a holder having an inner wall surface that is located outside the outer side surface of the plate and a support surface on which the second main surface of the plate is mounted, characterized in that the at least one opening of the reservoir stands above the first main surface outside the opening area. a plate having a first main surface that has an opening area in which a plurality of openings for injecting fluid are formed, a second main surface being the opposite side of the first main surface, and an outer side surface communicating the first main surface and the second main surface; wherein the plate is composed of a first substrate and a second substrate which are bonded together so that grooves serving as hollow-shaped channels are sandwiched between the two substrates (12, 13) and are connected to two openings, wherein the microfluidic device further comprises a reservoir that has at least one opening with a bottom and is capable of storing liquid, and a holder having an inner wall surface that is located outside the outer side surface of the plate and a support surface on which the second main surface of the plate is mounted, characterized in that the at least one opening of the reservoir stands above the first main surface outside the opening area.
A pipette tip, comprising: a sample collection part having a capillary tube (211,212) formed in a longitudinal direction for introducing samples; and a barrel body having a sample storage chamber which communicates with the capillary tube (211,212) through a stepped portion and stores the samples, wherein the stepped portion has an inclination angle with the capillary tube (211,212) of equal to or greater than 45°, characterized in that the capillary tube (211,212) includes: a first capillary tube formed in a front opening; and a second capillary tube having a smaller cross-sectional area from that of the first capillary tube and communicating therewith and with the stepped portion. a sample collection part having a capillary tube (211,212) formed in a longitudinal direction for introducing samples; and a barrel body having a sample storage chamber which communicates with the capillary tube (211,212) through a stepped portion and stores the samples, wherein the stepped portion has an inclination angle with the capillary tube (211,212) of equal to or greater than 45°, characterized in that the capillary tube (211,212) includes: a first capillary tube formed in a front opening; and a second capillary tube having a smaller cross-sectional area from that of the first capillary tube and communicating therewith and with the stepped portion. a first capillary tube formed in a front opening; and a second capillary tube having a smaller cross-sectional area from that of the first capillary tube and communicating therewith and with the stepped portion.
A spline cleaning device for cleaning splines formed within a component of a gas turbine engine, the spline cleaning device comprising: a central support; a central support sleeve that surrounds and is movable with respect to the central support; a scraper having protrusions, the scraper being attachable to the central support sleeve, and configured to remove surface contaminants from splines; and a collector sump that is attachable to the central support and configured to collect the surface contaminants that have been removed from the splines. a central support; a central support sleeve that surrounds and is movable with respect to the central support; a scraper having protrusions, the scraper being attachable to the central support sleeve, and configured to remove surface contaminants from splines; and a collector sump that is attachable to the central support and configured to collect the surface contaminants that have been removed from the splines.
A method for transferring vehicle information in a vehicle information system (100, 100') of a motor vehicle, wherein entities of the vehicle information system (100, 100') are connected to each other by a data bus, the method comprising processing the vehicle information through a sequence of one or more processing components (801, 803, 805, 807) arranged in a signal path between the data bus and a digital instrument panel provided via a user interface in the motor vehicle, said processing comprising, in each processing component (801, 803, 805, 807), receiving input data from direction of an input to the signal path, carrying out a respective predefined processing operation for generating output data on basis of the input data, and providing the output data towards an output of the signal path; characterized in that the method comprises transferring status data through said sequence of processing components (801, 803, 805, 807) from direction of the data bus towards the digital instrument panel, said transferring comprising, in each processing component (801, 803, 805, 807), receiving input status data from direction of the data bus, complementing the input status data with a component status indicator reflecting a current status of the respective processing component (801, 803, 805, 807), and conveying the complemented input status data as output status data towards the digital instrument panel. receiving input data from direction of an input to the signal path, carrying out a respective predefined processing operation for generating output data on basis of the input data, and providing the output data towards an output of the signal path; receiving input status data from direction of the data bus, complementing the input status data with a component status indicator reflecting a current status of the respective processing component (801, 803, 805, 807), and conveying the complemented input status data as output status data towards the digital instrument panel.
A NAND device for NAND temperature data management, the NAND device comprising: a NAND component; and a NAND controller to: receive a command to write data to the NAND component; in response to receiving the command, obtain temperature data that describes a temperature corresponding to the NAND component; and execute the command to write data to the NAND component and to write a representation of the temperature, the data written to a user portion and the representation of the temperature written to a management portion that is accessible only to the NAND controller and segregated from the user portion, characterized in that: the representation of the temperature being generated by quantizing the temperature such that the representation describes the temperature at a lower resolution than the temperature data obtained and the representation comprises less data bits than the temperature data. a NAND component; and a NAND controller to: receive a command to write data to the NAND component; in response to receiving the command, obtain temperature data that describes a temperature corresponding to the NAND component; and execute the command to write data to the NAND component and to write a representation of the temperature, the data written to a user portion and the representation of the temperature written to a management portion that is accessible only to the NAND controller and segregated from the user portion, characterized in that: the representation of the temperature being generated by quantizing the temperature such that the representation describes the temperature at a lower resolution than the temperature data obtained and the representation comprises less data bits than the temperature data. receive a command to write data to the NAND component; in response to receiving the command, obtain temperature data that describes a temperature corresponding to the NAND component; and execute the command to write data to the NAND component and to write a representation of the temperature, the data written to a user portion and the representation of the temperature written to a management portion that is accessible only to the NAND controller and segregated from the user portion, characterized in that: the representation of the temperature being generated by quantizing the temperature such that the representation describes the temperature at a lower resolution than the temperature data obtained and the representation comprises less data bits than the temperature data.