mhurhangee/ep-ind-claims huggingface dataset:
A battery operated device, comprising: a battery compartment; a battery in the battery compartment; and an electric component powered by the battery, the battery compartment is mounted on a deformable base and comprises a top surface characterized in that the top surface is adapted to be ruptured by deforming the deformable base, thereby enabling removal of the battery from the battery compartment. a battery compartment; a battery in the battery compartment; and an electric component powered by the battery, the battery compartment is mounted on a deformable base and comprises a top surface characterized in that the top surface is adapted to be ruptured by deforming the deformable base, thereby enabling removal of the battery from the battery compartment.
A manually actuated sampling pipette comprising: - a fixed pipette body; - a pipetting control rod at the end of which a pipetting control knob is arranged; - a cone ejector returned in a high position with respect to the fixed pipette body by first elastic return means; - a sampling volume adjusting control screw; - a braking ring for braking the control screw, rotatably integral with the same, characterised in that it further includes a dual function control member allowing an unlocking control of the braking ring and a cone ejection control, the control member being slidingly mounted relative to the fixed pipette body about an axial direction of the pipette, this including a locking member for locking the braking ring, second elastic return means returning the locking member into a locking position in which this locking member cooperates with the braking ring in order to brake the rotation thereof, and following means for following the axial movement of the dual function control member, these following means including a disengagement element for disengaging the locking member, said pipette being configured such that the control member can occupy a nominal central position in which said second elastic return means bring the locking member into its locking position, and can be axially moved, from its nominal central position, to each of the two following positions: - a low cone ejection position, in which the control member presses the cone ejector, the movement from the nominal central position to the low cone ejection position being made against the strain exerted by said first elastic return means; and - a high unlocking position for unlocking the braking ring, the movement of the dual function control member from the nominal central position to the high unlocking position causing said disengagement element to move the locking member against the strain exerted by said second elastic return means, until the braking ring is released. - a fixed pipette body; - a pipetting control rod at the end of which a pipetting control knob is arranged; - a cone ejector returned in a high position with respect to the fixed pipette body by first elastic return means; - a sampling volume adjusting control screw; - a braking ring for braking the control screw, rotatably integral with the same, - a low cone ejection position, in which the control member presses the cone ejector, the movement from the nominal central position to the low cone ejection position being made against the strain exerted by said first elastic return means; and - a high unlocking position for unlocking the braking ring, the movement of the dual function control member from the nominal central position to the high unlocking position causing said disengagement element to move the locking member against the strain exerted by said second elastic return means, until the braking ring is released.
A logic circuitry package (204, 400a, 400b, 400c, 400d, 806a-d, 900, 1302, 1401, 1501) configured to communicate with a print apparatus logic circuit, wherein the logic circuitry package is configured to respond to communications sent to a first address (1402, 1502) and to at least one second address (1404, 1504), and the logic circuitry package comprises a first logic circuit (402a, 402b, 402c, 402d, 402e, 1403), wherein the first address (1402, 1502) is an address for the first logic circuit (402a, 402b, 402c, 402d, 402e, 1403), and characterized in that the package is configured such that, in response to a first command indicative of a task and a first time period sent to the first address (1402, 1502), the package is accessible via at least one second address (1404, 1504) for a duration of the time period.
An X-ray inspection apparatus comprising: an X-ray irradiation unit configured to irradiate an article with X-rays; an X-ray detection unit configured to detect the X-rays transmitted through the article; an inspection unit configured to generate an X-ray transmission image of the article based on a signal output from the X-ray detection unit and configured to perform inspection of the article based on the X-ray transmission image; and a control unit configured to control the X-ray irradiation unit and the X-ray detection unit, wherein, the control unit is configured to execute a first control of controlling the X-ray irradiation unit such that an irradiation output is increased, if a detection output of the X-ray detection unit is decreased when the control unit controls the X-ray irradiation unit such that the irradiation output of the X-ray irradiation unit becomes a first irradiation output, the control unit is configured to execute a second control of controlling the X-ray detection unit such that the detection output is increased, if the detection output is decreased when the control unit controls the X-ray irradiation unit such that the irradiation output becomes a second irradiation output larger than the first irradiation output, characterised in that the control unit is configured to execute the first control in a state where the article is not irradiated with the X-rays emitted by the X-ray irradiation unit and the X-ray detection unit is detecting the X-rays with which the article is not irradiated, and the first control and the second control are switchable. an X-ray irradiation unit configured to irradiate an article with X-rays; an X-ray detection unit configured to detect the X-rays transmitted through the article; an inspection unit configured to generate an X-ray transmission image of the article based on a signal output from the X-ray detection unit and configured to perform inspection of the article based on the X-ray transmission image; and a control unit configured to control the X-ray irradiation unit and the X-ray detection unit, wherein, the control unit is configured to execute a first control of controlling the X-ray irradiation unit such that an irradiation output is increased, if a detection output of the X-ray detection unit is decreased when the control unit controls the X-ray irradiation unit such that the irradiation output of the X-ray irradiation unit becomes a first irradiation output, the control unit is configured to execute a second control of controlling the X-ray detection unit such that the detection output is increased, if the detection output is decreased when the control unit controls the X-ray irradiation unit such that the irradiation output becomes a second irradiation output larger than the first irradiation output, characterised in that the control unit is configured to execute the first control in a state where the article is not irradiated with the X-rays emitted by the X-ray irradiation unit and the X-ray detection unit is detecting the X-rays with which the article is not irradiated, and the first control and the second control are switchable.
A fault reproduction assist system that assists a fault reproduction of an abnormal vehicle, the fault reproduction assist system comprising: a configuration information acquisition unit that acquires, based on configuration information that is received from the abnormal vehicle and that includes hardware information of hardware in which an abnormality is detected and vehicle configuration information stored in advance in a storage unit, configuration information including the same hardware information as the hardware information of the abnormal vehicle and software information of software installed in the hardware identified by the hardware information; a configuration information determination unit that acquires from the storage unit software that includes the same software information as the software information included in the configuration information acquired by the configuration information acquisition unit; and a distribution unit that distributes the software acquired by the configuration information determination unit to a fault reproduction environment for reproducing a fault. a configuration information acquisition unit that acquires, based on configuration information that is received from the abnormal vehicle and that includes hardware information of hardware in which an abnormality is detected and vehicle configuration information stored in advance in a storage unit, configuration information including the same hardware information as the hardware information of the abnormal vehicle and software information of software installed in the hardware identified by the hardware information; a configuration information determination unit that acquires from the storage unit software that includes the same software information as the software information included in the configuration information acquired by the configuration information acquisition unit; and a distribution unit that distributes the software acquired by the configuration information determination unit to a fault reproduction environment for reproducing a fault.
An appliance for thoracic drainage in patients with an air fistula, said appliance comprising: a suction device for generating a vacuum; a control device for controlling the suction device, and at least one measuring device (6, 10), which allows the control device to determine a size parameter for the air fistula, characterized in that the control device is configured to carry out a method having the following steps, in order to regulate the level of the vacuum generated by the suction device as a function of said size parameter: (a) determining a first value of the size parameter; (b) changing the vacuum by a first differential value; (c) determining a second value of the size parameter after a first waiting period; (d) changing the vacuum by a second differential value, which has an opposite sign compared to the first differential value, if the second value of the size parameter is greater than the first value of the size parameter; (e) repeating steps (a)-(d) after a second waiting period. a suction device for generating a vacuum; a control device for controlling the suction device, and at least one measuring device (6, 10), which allows the control device to determine a size parameter for the air fistula, (a) determining a first value of the size parameter; (b) changing the vacuum by a first differential value; (c) determining a second value of the size parameter after a first waiting period; (d) changing the vacuum by a second differential value, which has an opposite sign compared to the first differential value, if the second value of the size parameter is greater than the first value of the size parameter; (e) repeating steps (a)-(d) after a second waiting period.
A controller for a power generation system, the controller being adapted to be communicably coupled to a generator set, a switch device, a first inverter, a second inverter, and an electrical storage device, the controller configured to: determine whether an external power source is providing power to a load; in response to determining that the external power source is not providing power to the load, operate the power generation system in a first state in which: an engine of the generator set operates at a first speed; the switch device is closed to connect the generator set to the load; and the electrical storage device is charged by the generator set through at least one of the first inverter or the second inverter; and in response to determining that the external power source is providing power to the load, operate the power generation system in a second state in which: the engine operates at a second speed lower than the first speed; the switch device is opened; and the generator set provides power to the load through the first inverter and the second inverter, wherein the first inverter operates as a rectifier. determine whether an external power source is providing power to a load; in response to determining that the external power source is not providing power to the load, operate the power generation system in a first state in which: an engine of the generator set operates at a first speed; the switch device is closed to connect the generator set to the load; and the electrical storage device is charged by the generator set through at least one of the first inverter or the second inverter; and an engine of the generator set operates at a first speed; the switch device is closed to connect the generator set to the load; and the electrical storage device is charged by the generator set through at least one of the first inverter or the second inverter; and in response to determining that the external power source is providing power to the load, operate the power generation system in a second state in which: the engine operates at a second speed lower than the first speed; the switch device is opened; and the generator set provides power to the load through the first inverter and the second inverter, wherein the first inverter operates as a rectifier. the engine operates at a second speed lower than the first speed; the switch device is opened; and the generator set provides power to the load through the first inverter and the second inverter, wherein the first inverter operates as a rectifier.
A method, comprising: monitoring network characteristics of a cloud environment, wherein the cloud environment includes a central cloud network and a fog network, wherein a server in the central cloud network hosts an application that serves at least a first client device, wherein the application is assigned an endpoint identifier, the endpoint identifier being mapped to a first locator identifier associated with the central cloud network, and wherein the fog network comprises a mapping cache, the mapping cache comprising a first entry mapping the endpoint identifier to the first locator identifier; determining, based on the monitored network characteristics, that a condition for executing the application at the fog network is satisfied; providing an instance of the application to be executed on a server in the fog network; assigning the endpoint identifier to the instance of the application; mapping the endpoint identifier to a second locator identifier associated with the fog network; causing the first entry in the mapping cache to be cleared; and in response to receiving a request at the fog network from the first client device to access the application, determining from a mapping server that the endpoint identifier is mapped to the second locator identifier based on the first cleared entry. monitoring network characteristics of a cloud environment, wherein the cloud environment includes a central cloud network and a fog network, wherein a server in the central cloud network hosts an application that serves at least a first client device, wherein the application is assigned an endpoint identifier, the endpoint identifier being mapped to a first locator identifier associated with the central cloud network, and wherein the fog network comprises a mapping cache, the mapping cache comprising a first entry mapping the endpoint identifier to the first locator identifier; determining, based on the monitored network characteristics, that a condition for executing the application at the fog network is satisfied; providing an instance of the application to be executed on a server in the fog network; assigning the endpoint identifier to the instance of the application; mapping the endpoint identifier to a second locator identifier associated with the fog network; causing the first entry in the mapping cache to be cleared; and in response to receiving a request at the fog network from the first client device to access the application, determining from a mapping server that the endpoint identifier is mapped to the second locator identifier based on the first cleared entry.
Insulation system for the sound and/or thermal insulation of a building wall or ceiling comprising an insulation element as well as a foaming adhesive for fastening the insulation element to the building wall or ceiling, wherein the insulation element has at least one surface with a coating which contains at least one organic and/or inorganic binding agent as well at least one filling agent containing water, wherein the water is predominantly bound in chemisorbed form in the filling agent, characterised in that in relation to the proportion of filling agents containing water an overcritical formulation is selected as a coating and the coating is applied to the full area of the rear of the insulation element which on applying the thermal element to a building wall or ceiling faces the substrate so that the coating comes into contact with the adhesive to fasten the insulation element to the substrate.
Endonasal drug delivery device suitable for inhalation by a patient comprising a shaped body having: - at least one first portion located at a first end of said shaped body, shaped to be inserted in a nasal cavity and having at least one air delivery duct towards the nasal cavity; - at least one second intermediate portion having at least one supply duct to allow the air inflow from the outside towards the inside of said endonasal delivery device; - at least one third portion located at the opposite end of said first portion and comprising at least one mixing chamber, wherein said mixing chamber is in fluid communication with: - said at least one supply duct to receive air from the outside; - at least one drug reservoir separated from said mixing chamber and in fluid connection with it to allow the drugs to flow into said mixing chamber to be drawn from the air by disturbance; - said at least one delivery duct for allowing the flow of drugs mixed with air into the nasal cavity, said fluid communication identifying a fluidic path that provides the air to inflow from the outside towards the inside of said endonasal delivery device by said supply duct, then walking towards said one mixing chamber, then collect the drugs by disturbance, so the drugs flow to said mixing chamber by the pressure differential between said mixing chamber and said reservoir and finally the mix air-drugs flows towards said delivery duct towards the nasal cavity. - at least one first portion located at a first end of said shaped body, shaped to be inserted in a nasal cavity and having at least one air delivery duct towards the nasal cavity; - at least one second intermediate portion having at least one supply duct to allow the air inflow from the outside towards the inside of said endonasal delivery device; - at least one third portion located at the opposite end of said first portion and comprising at least one mixing chamber, wherein said mixing chamber is in fluid communication with: - said at least one supply duct to receive air from the outside; - at least one drug reservoir separated from said mixing chamber and in fluid connection with it to allow the drugs to flow into said mixing chamber to be drawn from the air by disturbance; - said at least one delivery duct for allowing the flow of drugs mixed with air into the nasal cavity, - said at least one supply duct to receive air from the outside; - at least one drug reservoir separated from said mixing chamber and in fluid connection with it to allow the drugs to flow into said mixing chamber to be drawn from the air by disturbance; - said at least one delivery duct for allowing the flow of drugs mixed with air into the nasal cavity, said fluid communication identifying a fluidic path that provides the air to inflow from the outside towards the inside of said endonasal delivery device by said supply duct, then walking towards said one mixing chamber, then collect the drugs by disturbance, so the drugs flow to said mixing chamber by the pressure differential between said mixing chamber and said reservoir and finally the mix air-drugs flows towards said delivery duct towards the nasal cavity.
Process for producing active material for the electrode of an electrochemical element, comprising the steps of - providing carbon particles, - applying a silicon precursor to the surface of the carbon particles, - thermally decomposing the silicon precursor to form metallic silicon, wherein the silicon precursor used is a silane mixture which has been prepared by oligomerization and/or polymerization proceeding from cyclopentasilane. - providing carbon particles, - applying a silicon precursor to the surface of the carbon particles, - thermally decomposing the silicon precursor to form metallic silicon, wherein the silicon precursor used is a silane mixture which has been prepared by oligomerization and/or polymerization proceeding from cyclopentasilane.
A handheld point-of-care device, the device comprising: batteries; a user interface comprising a display; a digital signal processor connected to a memory, the user interface, and the display; an A/D converter connected to the DSP; pressure amplifiers connected to the A/D converter; a mouthpiece connected to the pressure amplifiers; interchangeable and independent bio-electrodes, forming a part of the housing of the device, and arranged to measure bio-impedance or ECG of the hand of the person; a current generator for providing an alternating current signal, the current generator being connected to: a contact detection circuit; the A/D converter; the bio-electrodes; and to an impedance measurement stage that is further connected to the bio-electrodes and that comprises a pre-amplifier and a demodulation unit; wherein the mouthpiece comprises: an air inlet configured for receiving expired air from the person, the air inlet being connected to an interior cavity of the mouthpiece; a first air outlet of the interior cavity; the outlet for guiding pressurized air to the pressure amplifiers via a tube, and an air leak for building up pressure in the interior cavity; wherein, during impedance measurement, the device is configured to: supply an alternating current to the tissue through one or more of the bio-electrodes; record a modulated bio-impedance signal using one or more of the electrodes; demodulate and sample a pulse wave signal; and further process the signal in the digital signal processor; and wherein the contact-detection circuit is arranged to detect if the bio electrodes have poor contact, based on the amplitude of the voltage needed to supply the alternating current signal and to notify an operator via the DSP and the display.