mhurhangee/ep-ind-claims huggingface dataset:
An electron tube housing an electron multiplication unit and an anode in a hermetic vessel, the inside of which is maintained in a vacuum state, comprising: a transmission mode photocathode comprising: an optically transparent substrate having one face to which light is incident, and another face from which the light incident to the one face is output; a photoelectric conversion layer disposed on the other face side of the optically transparent substrate, and configured to convert the light output from the other face into a photoelectron or photoelectrons; and an optically-transparent electroconductive layer disposed between the optically transparent substrate and the photoelectric conversion layer, a side tube made of metal; and a stem, characterized in that the optically-transparent electroconductive layer is comprised of a single layer of graphene, a contact portion comprised of an electroconductive material is formed on the other face side of the optically transparent substrate in order to establish electrical connection between the optically-transparent electroconductive layer and the side tube, the photoelectric conversion layer is formed so as to cover the contact portion and the optically-transparent electroconductive layer, the side tube is electrically connected through the contact portion to the optically-transparent electroconductive layer and the photoelectric conversion layer, and the photoelectric conversion layer consists primarily of the alkali metals. an optically transparent substrate having one face to which light is incident, and another face from which the light incident to the one face is output; a photoelectric conversion layer disposed on the other face side of the optically transparent substrate, and configured to convert the light output from the other face into a photoelectron or photoelectrons; and an optically-transparent electroconductive layer disposed between the optically transparent substrate and the photoelectric conversion layer, a side tube made of metal; and a stem, characterized in that the optically-transparent electroconductive layer is comprised of a single layer of graphene, a contact portion comprised of an electroconductive material is formed on the other face side of the optically transparent substrate in order to establish electrical connection between the optically-transparent electroconductive layer and the side tube, the photoelectric conversion layer is formed so as to cover the contact portion and the optically-transparent electroconductive layer, the side tube is electrically connected through the contact portion to the optically-transparent electroconductive layer and the photoelectric conversion layer, and the photoelectric conversion layer consists primarily of the alkali metals.
An electric system (100, 200) comprising a first capacitive circuit (101, 201) and converter equipment (102, 202) for transferring electric energy between the first capacitive circuit and one or more electric machines, the converter equipment being configured to convert first direct voltage (U DC1) of the first capacitive circuit into one or more voltages suitable for the one or more electric machines, the electric system further comprising: - a second capacitive circuit (103, 203), - a direct voltage converter (104, 204) for transferring electric energy between the first and second capacitive circuits, and - a control system (105, 205) comprising a first controller for controlling the direct voltage converter in response to changes of the first direct voltage, and a second controller for controlling the converter equipment in response to changes of second direct voltage (U DC2) of the second capacitive circuit, characterized in that the first controller and the second controller are configured so that the first controller is faster to react to the changes of the first direct voltage than the second controller to the changes of the second direct voltage so as to keep the first direct voltage on a first predetermined voltage range and to allow the second direct voltage to fluctuate in response to fluctuation of electric power transferred between the first capacitive circuit and the one or more electric machines. - a second capacitive circuit (103, 203), - a direct voltage converter (104, 204) for transferring electric energy between the first and second capacitive circuits, and - a control system (105, 205) comprising a first controller for controlling the direct voltage converter in response to changes of the first direct voltage, and a second controller for controlling the converter equipment in response to changes of second direct voltage (U DC2) of the second capacitive circuit,
A debris barrier assembly, comprising: an annular barrier having a bore; an extension tubular inserted through the bore; a primary release mechanism comprising a bypass slot allowing fluid communication between the annular barrier and the extension tubular for breaking a hydraulic lock on the annular barrier; an upper tubular coupled to an upper end of the extension tubular; a lower tubular coupled to a lower end of the extension tubular and including a radial channel, disposed through a sidewall of the lower tubular and in communication with a bore thereof; and characterised by a secondary release mechanism including a valve sleeve having a port, wherein the lower tubular is selectively moveable relative to the valve sleeve to open fluid communication between the channel and the port, thereby breaking the hydraulic lock on the annular barrier. an annular barrier having a bore; an extension tubular inserted through the bore; a primary release mechanism comprising a bypass slot allowing fluid communication between the annular barrier and the extension tubular for breaking a hydraulic lock on the annular barrier; an upper tubular coupled to an upper end of the extension tubular; a lower tubular coupled to a lower end of the extension tubular and including a radial channel, disposed through a sidewall of the lower tubular and in communication with a bore thereof; and characterised by a secondary release mechanism including a valve sleeve having a port, wherein the lower tubular is selectively moveable relative to the valve sleeve to open fluid communication between the channel and the port, thereby breaking the hydraulic lock on the annular barrier.
Device for selectively dispensing dry ice snow or dry ice pellets as material to be conveyed, comprising - a storage container for receiving dry ice characterized in that - the device has a vibrating means and/or scraping means, wherein an insert plate (105; 105a; 105b; 105c; 105d) with through-openings (106; 106a; 106b1, 106b2, 106b3, 106b4; 106c; 106d), which is suitable in that the dry ice snow lies on the plate and can fall in portions through the through-openings, which is located inside the storage container, divides the storage container into two regions and can be vibrated by means of the vibrating means and/or can be stripped by means of the scraping means, is provided, or characterized in that - the device has a vibrating means and a ball is located inside the storage container and can be vibrated by means of the vibrating means. - a storage container for receiving dry ice characterized in that - the device has a vibrating means and/or scraping means, wherein an insert plate (105; 105a; 105b; 105c; 105d) with through-openings (106; 106a; 106b1, 106b2, 106b3, 106b4; 106c; 106d), which is suitable in that the dry ice snow lies on the plate and can fall in portions through the through-openings, which is located inside the storage container, divides the storage container into two regions and can be vibrated by means of the vibrating means and/or can be stripped by means of the scraping means, is provided, or characterized in that - the device has a vibrating means and a ball is located inside the storage container and can be vibrated by means of the vibrating means.
A breathing apparatus to provide fluid flow to a patient comprising: a blower at least one sensor (13a, 13b), and a controller configured to: operate the blower to generate fluid flow at a flow rate higher or lower than a baseline flow rate to provide to a patient, measure using the sensor a current breath flow parameter of a patient at the flow rate using the breathing apparatus, the breath flow parameter comprising respiratory rate and/or tidal volume, or one or more parameters derived therefrom, compare the current breath flow parameter to an equivalent baseline breath flow parameter of the patient measured previously at the baseline flow rate, determine a sleep state of a patient based on the comparison between the current breath flow parameter and the equivalent baseline breath flow parameter measured previously at the baseline flow rate, and alter operation of the breathing apparatus based on the determination of the sleep state. a blower at least one sensor (13a, 13b), and a controller configured to: operate the blower to generate fluid flow at a flow rate higher or lower than a baseline flow rate to provide to a patient, measure using the sensor a current breath flow parameter of a patient at the flow rate using the breathing apparatus, the breath flow parameter comprising respiratory rate and/or tidal volume, or one or more parameters derived therefrom, compare the current breath flow parameter to an equivalent baseline breath flow parameter of the patient measured previously at the baseline flow rate, determine a sleep state of a patient based on the comparison between the current breath flow parameter and the equivalent baseline breath flow parameter measured previously at the baseline flow rate, and alter operation of the breathing apparatus based on the determination of the sleep state. operate the blower to generate fluid flow at a flow rate higher or lower than a baseline flow rate to provide to a patient, measure using the sensor a current breath flow parameter of a patient at the flow rate using the breathing apparatus, the breath flow parameter comprising respiratory rate and/or tidal volume, or one or more parameters derived therefrom, compare the current breath flow parameter to an equivalent baseline breath flow parameter of the patient measured previously at the baseline flow rate, determine a sleep state of a patient based on the comparison between the current breath flow parameter and the equivalent baseline breath flow parameter measured previously at the baseline flow rate, and alter operation of the breathing apparatus based on the determination of the sleep state.
An inkjet head comprising a drive device, the drive device comprising: a first board which is an actuator board on which a plurality of actuators of a plurality of channels are arranged, and a plurality of first conductors configured to respectively send a drive signal to each of the plurality of actuators are arranged in a terminal part; a second board which is a flexible board on which a drive integrated circuit configured to drive the plurality of actuators is mounted, and second conductors from a plurality of channels of the drive IC are arranged in a terminal part; and a relay board which is a relay flexible board, on which a plurality of third conductors are formed from a terminal part to be connected to the first board to a terminal part to be connected to the second board, characterised in that the third conductors each having a width larger than a pitch of the second conductors are arranged at a lower density than the second conductors in the terminal part to be connected to the second board, so that each of the first conductors configured to send the drive signal to each of the actuators is connected to each of the second conductors from two or more of the channels of the drive IC. a first board which is an actuator board on which a plurality of actuators of a plurality of channels are arranged, and a plurality of first conductors configured to respectively send a drive signal to each of the plurality of actuators are arranged in a terminal part; a second board which is a flexible board on which a drive integrated circuit configured to drive the plurality of actuators is mounted, and second conductors from a plurality of channels of the drive IC are arranged in a terminal part; and a relay board which is a relay flexible board, on which a plurality of third conductors are formed from a terminal part to be connected to the first board to a terminal part to be connected to the second board, characterised in that the third conductors each having a width larger than a pitch of the second conductors are arranged at a lower density than the second conductors in the terminal part to be connected to the second board, so that each of the first conductors configured to send the drive signal to each of the actuators is connected to each of the second conductors from two or more of the channels of the drive IC.
A catheter for an electromagnetic tracking system comprising a control unit configured to perform triangulation, the catheter comprising: - an elongated body and a grip portion; - an electromagnetic tracking sensor arranged at a distal end portion of the elongate body and configured to measure an intensity of an electromagnetic field generated by a field generator; and - a wireless readout unit at least temporarily attached to the grip portion and comprising a data input, a data processor, and a data output; wherein the data input is configured to receive raw signals from the electromagnetic tracking sensor; wherein the data processor is configured to at least partly pre-process the raw signals provided by the data input by performing identification and/or separation of different signal components induced by different field emitting elements of a field generator and by performing extraction of different signal components that are needed by the control unit to perform triangulation; - wherein the data output is configured to provide a wireless data link to the control unit of the electromagnetic tracking system of the catheter and is configured for data transmission of the at least partly pre-processed data. - an elongated body and a grip portion; - an electromagnetic tracking sensor arranged at a distal end portion of the elongate body and configured to measure an intensity of an electromagnetic field generated by a field generator; and - a wireless readout unit at least temporarily attached to the grip portion and comprising a data input, a data processor, and a data output; wherein the data input is configured to receive raw signals from the electromagnetic tracking sensor; wherein the data processor is configured to at least partly pre-process the raw signals provided by the data input by performing identification and/or separation of different signal components induced by different field emitting elements of a field generator and by performing extraction of different signal components that are needed by the control unit to perform triangulation; wherein the data input is configured to receive raw signals from the electromagnetic tracking sensor; wherein the data processor is configured to at least partly pre-process the raw signals provided by the data input by performing identification and/or separation of different signal components induced by different field emitting elements of a field generator and by performing extraction of different signal components that are needed by the control unit to perform triangulation; - wherein the data output is configured to provide a wireless data link to the control unit of the electromagnetic tracking system of the catheter and is configured for data transmission of the at least partly pre-processed data.
Nintedanib for use in a method for the treatment of non-small cell lung cancer in a patient who has received prior treatment with an anti-tumour therapy other than with nintedanib, which method comprises treating said patient with a treatment regimen comprising the administration of nintedanib or a pharmaceutically acceptable salt thereof, wherein the patient to be treated is selected for treatment on the basis of having shown progression of the cancer within a period of 9 months or less after the initiation of said prior treatment.
System for testing the integrity of a well barrier, the system comprising: - a well including a wellbore and a upper wellbore termination means, such as a wellhead; - a tracer; - a storage means (18, 18A, 18B, 31) for storing said tracer, the storage means (18, 18A, 18B, 31) being provided below the barrier in the well, - a barrier provided in the wellbore, the barrier having an upstream side below the barrier and a downstream side above the barrier; and - a release mechanism for releasing the tracer from the storage means (18, 18A, 18B, 31), characterised in that when the tracer is released from the storage means it is driven from the upstream side to the downstream side of the barrier by a pressure differential established across the barrier; and - the system further comprises a detector for detecting the tracer that has leaked through the barrier, the detector being provided in the wellbore between said barrier and said upper wellbore termination means. - a well including a wellbore and a upper wellbore termination means, such as a wellhead; - a tracer; - a storage means (18, 18A, 18B, 31) for storing said tracer, the storage means (18, 18A, 18B, 31) being provided below the barrier in the well, - a barrier provided in the wellbore, the barrier having an upstream side below the barrier and a downstream side above the barrier; and - a release mechanism for releasing the tracer from the storage means (18, 18A, 18B, 31), characterised in that when the tracer is released from the storage means it is driven from the upstream side to the downstream side of the barrier by a pressure differential established across the barrier; and - the system further comprises a detector for detecting the tracer that has leaked through the barrier, the detector being provided in the wellbore between said barrier and said upper wellbore termination means.
A co-crystal comprising an anilinopyrimidine fungicide selected from cyprodinil and a co-crystal forming compound which has at least one imide and/or oxime functional group and wherein the co-crystal forming compound is selected from pyromellitic diimide, terephthalaldehyde dioxime, dimethylglyoxime, 2,3-naphthalenedicarboximide, 2-hydroxyimino-2-phenylacetonitrile and phthalimide.
A method for controlling operations of an electronic device, comprising: using a rotary knob having a single rotatable part, wherein the method is characterised by using the rotary knob having a single rotatable part to select a first circuit to perform operations of the electronic device during a first time and to select a second circuit to perform operations of the electronic device during a second time; and using the single rotatable part of the rotary knob to additionally change preset functions for the first circuit during the first time and the second circuit during the second time, where a degree of rotation of the single rotatable part corresponds to a desired preset function input selected from a plurality of possible preset function inputs, wherein the first circuit is selected by: placing the single rotatable part of the rotary knob in a first home position; and maintaining the single rotatable part in the first home position for a given amount of time so as to cause the electronic device to switch operations from a second circuit to the first circuit, wherein the second circuit is selected by: placing the single rotatable part of the rotary knob in a second home position; and maintaining the single rotatable part of the rotary knob in the second home position for the given amount of time so as to cause the electronic device to switch operations from the first circuit to the second circuit. using a rotary knob having a single rotatable part, wherein the method is characterised by using the rotary knob having a single rotatable part to select a first circuit to perform operations of the electronic device during a first time and to select a second circuit to perform operations of the electronic device during a second time; and using the single rotatable part of the rotary knob to additionally change preset functions for the first circuit during the first time and the second circuit during the second time, where a degree of rotation of the single rotatable part corresponds to a desired preset function input selected from a plurality of possible preset function inputs, wherein placing the single rotatable part of the rotary knob in a first home position; and maintaining the single rotatable part in the first home position for a given amount of time so as to cause the electronic device to switch operations from a second circuit to the first circuit, wherein the second circuit is selected by: placing the single rotatable part of the rotary knob in a second home position; and maintaining the single rotatable part of the rotary knob in the second home position for the given amount of time so as to cause the electronic device to switch operations from the first circuit to the second circuit. placing the single rotatable part of the rotary knob in a second home position; and maintaining the single rotatable part of the rotary knob in the second home position for the given amount of time so as to cause the electronic device to switch operations from the first circuit to the second circuit.
A system for storing data in an industrial production environment, the system comprising: a distributed data management system stored on a plurality of intelligent programmable logic controller devices, wherein each respective intelligent programmable logic controller device (105A, 105B, 105C, 110A, 110B, 110C) comprises: a volatile computer-readable storage medium comprising a process image area; a non-volatile computer-readable storage medium; a control program configured to provide operating instructions to a production unit; an input/output component configured to update the process image area during each scan cycle with data associated with the production unit; characterized in that a distributed data management component comprising an instance of the distributed data management system; a contextualization component configured to generate contextualized data by annotating contents of the process image area with automation system context information, a historian component configured to locally store the contents of the process image area and the contextualized data, and which makes the contents available across the distributed data management system through the distributed data management component, and a data analytics component configured to execute one or more reasoning algorithms for analyzing data stored across the distributed data management system using the distributed data management component. a volatile computer-readable storage medium comprising a process image area; a non-volatile computer-readable storage medium; a control program configured to provide operating instructions to a production unit; an input/output component configured to update the process image area during each scan cycle with data associated with the production unit; characterized in that a distributed data management component comprising an instance of the distributed data management system; a contextualization component configured to generate contextualized data by annotating contents of the process image area with automation system context information, a historian component configured to locally store the contents of the process image area and the contextualized data, and which makes the contents available across the distributed data management system through the distributed data management component, and a data analytics component configured to execute one or more reasoning algorithms for analyzing data stored across the distributed data management system using the distributed data management component.