mhurhangee/ep-ind-claims huggingface dataset:
A blade group for demisting and dedusting, comprising a plurality of blades that are annularly arranged and a supporting member for fixing the blades; wherein the blade comprises a section of curved plate, a cross section of the curved plate being a gradually-varied arc curve whose curvature increases progressively along an airflow direction; wherein the arc curve is a corrected involute, and the curve equation is: { x = k * r * x cos φ + φ * sin φ y = r * sin φ − φ * cos φ φ = 0 − π / 2, r = 0.5 − 10 mm, k = 0.3 − 3 wherein φ is a spread angle, r is a base circle radius, and k is a correction coefficient.
Securing device for a control rod in a nuclear plant, comprising a control rod drive and comprising a drive housing which encloses the control rod drive and is designed to be guided through a reactor pressure wall, the drive housing having at least one coupling element for forming a force-fit connection and/or an interlocking connection between the drive housing and the reactor pressure wall, characterised in that the drive housing has a substantially hollow cylindrical shape, and the or each coupling element is designed in the form of a bayonet connection.
A system to optimize cleaning of a turbine engine, the system comprising one or more computing devices configured to: by a communication link between a turbine engine and a cleaning schedule optimizer, receive engine health data from the turbine engine over time during operation of the turbine engine, the engine health data including at least one of engine temperature, fuel efficiency and/or engine speed; by the cleaning schedule optimizer, periodically execute a cleaning schedule optimization routine to evaluate instances of the engine health data using one or more cleaning schedule optimization criteria; and in response to one or more instances of the engine health data meeting an engine health criterion, issue a notification to cause a foamed cleaning agent to be discharged into the turbine engine according to an optimized engine cleaning schedule; wherein the cleaning schedule optimizer is configured to query a maintenance database for information about the maintenance history of the turbine engine and incorporate the maintenance history information into the engine cleaning scheduling routine. by a communication link between a turbine engine and a cleaning schedule optimizer, receive engine health data from the turbine engine over time during operation of the turbine engine, the engine health data including at least one of engine temperature, fuel efficiency and/or engine speed; by the cleaning schedule optimizer, periodically execute a cleaning schedule optimization routine to evaluate instances of the engine health data using one or more cleaning schedule optimization criteria; and in response to one or more instances of the engine health data meeting an engine health criterion, issue a notification to cause a foamed cleaning agent to be discharged into the turbine engine according to an optimized engine cleaning schedule; wherein the cleaning schedule optimizer is configured to query a maintenance database for information about the maintenance history of the turbine engine and incorporate the maintenance history information into the engine cleaning scheduling routine.
A liquid ejection device, comprising: a nozzle plate in which a plurality of nozzles for ejecting liquid are arranged, wherein each of the nozzles is provided with an actuator such that one set of the nozzle and the actuator configures one channel; a liquid supply unit configured to communicate with the nozzles; a waveform generation circuit configured to generate plural kinds of drive waveforms with different generation start timings, the generation start timings being shifted by a delay amount; a waveform allocation circuit configured to set a drive waveform among the plural kinds of drive waveforms and an actuator of a nozzle to be allocated; and a drive signal output circuit configured to drive the actuators with the respective allocated drive waveforms, characterized in that the waveform allocation circuit includes a drive waveform selection memory that stores an allocation pattern of the drive waveform which sets the channel and a delay amount among a plurality of values of delay amount to be allocated in a predetermined array; and the waveform allocation circuit is further configured to set the allocation pattern of the drive waveform for the channel with the predetermined array. a nozzle plate in which a plurality of nozzles for ejecting liquid are arranged, wherein each of the nozzles is provided with an actuator such that one set of the nozzle and the actuator configures one channel; a liquid supply unit configured to communicate with the nozzles; a waveform generation circuit configured to generate plural kinds of drive waveforms with different generation start timings, the generation start timings being shifted by a delay amount; a waveform allocation circuit configured to set a drive waveform among the plural kinds of drive waveforms and an actuator of a nozzle to be allocated; and a drive signal output circuit configured to drive the actuators with the respective allocated drive waveforms, characterized in that the waveform allocation circuit includes a drive waveform selection memory that stores an allocation pattern of the drive waveform which sets the channel and a delay amount among a plurality of values of delay amount to be allocated in a predetermined array; and the waveform allocation circuit is further configured to set the allocation pattern of the drive waveform for the channel with the predetermined array.
Electrical protection apparatus comprising at least one disconnection module (2, 3) mounted on a mounting support, and a control device with electromagnetic coil juxtaposed with one of the abovementioned modules (2, 3) each disconnection module (2, 3) comprising two contacts (13, 15) of which one is mobile relative to the other between a first position in which the contacts (13, 15) are closed and allow the passage of the current and an open position in which the current is interrupted between the contacts and the abovementioned control device comprising an electromagnetic coil suitable for controlling the opening or the closing of the contacts (13, 15), the coil of the control device being situated substantially facing the contact point(s) of the contacts of the disconnection module(s), the so-called first axis of the coil of the control device extending substantially at right angles to the fixing plane whereas the axis (axes) of the disconnection module(s) (2, 3) extend substantially parallel to the fixing plane, the so-called first axis extending substantially at right angles to the so-called second axis (axes), this electrical protection apparatus comprises a magnetic screen arranged in a plane substantially at right angles to the plane of the mounting support, said screen being situated between the control device and the closest disconnection module (2, 3) of said device facing the coil of the control device, and comprising at least one ferromagnetic part dimensioned so as to substantially completely cover the coil of the control device, said part producing the magnetic guidance of the arc upon the separation of the contacts (13, 15) so as to augment the Laplace force propulsion component T acting on the arc upon the separation of the contacts.
A method comprising: maintaining display of application graphics for a first application and a second application, both compiled for and in active concurrent execution within a mobile operating system, by iteratively performing steps comprising: calculating updates to a first surface associated with the first application using the mobile operating system; rendering the updated first surface using the mobile operating system to generate a first graphics frame in a first memory location, the mobile operating system and a desktop operating system running concurrently and independently on a shared kernel executing on a mobile device, wherein each operating system makes system calls through the shared kernel without virtualized memory; calculating updates to a second surface associated with the second application using the mobile operating system; storing the updated second surface in a second memory location, the second memory location being a shared memory location accessible by both the mobile operating system and the desktop operating system; rendering the updated second surface using a console application of the desktop operating system to generate a second graphics frame in a third memory location; displaying the first graphics frame from the first memory location to a display of a first computing environment associated with the mobile operating system; and displaying the second graphics frame from the third memory location to a display of a second computing environment associated with the desktop operating system. calculating updates to a first surface associated with the first application using the mobile operating system; rendering the updated first surface using the mobile operating system to generate a first graphics frame in a first memory location, the mobile operating system and a desktop operating system running concurrently and independently on a shared kernel executing on a mobile device, wherein each operating system makes system calls through the shared kernel without virtualized memory; calculating updates to a second surface associated with the second application using the mobile operating system; storing the updated second surface in a second memory location, the second memory location being a shared memory location accessible by both the mobile operating system and the desktop operating system; rendering the updated second surface using a console application of the desktop operating system to generate a second graphics frame in a third memory location; displaying the first graphics frame from the first memory location to a display of a first computing environment associated with the mobile operating system; and displaying the second graphics frame from the third memory location to a display of a second computing environment associated with the desktop operating system.
An expandable implant system configured to increase the height of a fractured target bone, the target bone preferably comprising a vertebral body portion of a vertebra, the expandable implant system comprising: a primary implant including a primary implant body configured to move from a collapsed configuration to an expanded configuration, the primary implant body includes an inner surface defining an internal void; and an auxiliary implant configured to be disposed in the internal void of the primary implant body and expanded from a collapsed configuration to an expanded configuration, and to support the primary implant in its expanded configuration; wherein the auxiliary implant defines a central body portion and at least a pair of nodes that extend out from the central body portion, the central body portion defines side surfaces, the at least a pair of nodes are configured to at least partially define at least one pocket that is disposed circumferentially between adjacent nodes and radially between the side surfaces of the central body portion and the primary implant when the auxiliary implant is in its expanded configuration while disposed in the primary implant, characterized in that each node includes a neck and a support foot that defines a greater circumferential dimension than the neck, the support feet defining respective radially outer contact surfaces configured to contact and support the inner surface of the primary implant body, so as to support the primary implant in its expanded configuration. a primary implant including a primary implant body configured to move from a collapsed configuration to an expanded configuration, the primary implant body includes an inner surface defining an internal void; and an auxiliary implant configured to be disposed in the internal void of the primary implant body and expanded from a collapsed configuration to an expanded configuration, and to support the primary implant in its expanded configuration; wherein the auxiliary implant defines a central body portion and at least a pair of nodes that extend out from the central body portion, the central body portion defines side surfaces, the at least a pair of nodes are configured to at least partially define at least one pocket that is disposed circumferentially between adjacent nodes and radially between the side surfaces of the central body portion and the primary implant when the auxiliary implant is in its expanded configuration while disposed in the primary implant, characterized in that each node includes a neck and a support foot that defines a greater circumferential dimension than the neck, the support feet defining respective radially outer contact surfaces configured to contact and support the inner surface of the primary implant body, so as to support the primary implant in its expanded configuration.
An oven for heating fibers, the oven comprising: - a supply structure disposed within the oven between first and second ends (520, 522) of the oven, the supply structure comprising a plurality of plenums stacked one above each other with gaps therebetween, wherein the plenums are in fluid communication with a heating system; wherein at least one plenum comprises at least one side wall comprising a plurality of passages formed therein, said at least one plenum configured to direct at least a portion of the heated gas into an interior of the oven from the plurality of passages; characterized in that each of the plurality of passages formed in said at least one plenum has a respective tapered cross-sectional shape. - a supply structure disposed within the oven between first and second ends (520, 522) of the oven, the supply structure comprising a plurality of plenums stacked one above each other with gaps therebetween, wherein the plenums are in fluid communication with a heating system;
A sensor system configured for detecting a property of or within an absorbent article, comprising: - a first sensor configured to measure a first physical parameter, said first sensor being configured to detect a change in condition of or within the absorbent article; - a second sensor configured to measure a second physical parameter, said second sensor being configured to detect a change in condition of or within the absorbent article; wherein the first and second physical parameters are different from one another, wherein the first sensor is configured to measure electrical resistance or electrical conductance and the second sensor is configured to measure temperature and wherein the second sensor is a multispectral and/or thermal imaging camera. - a first sensor configured to measure a first physical parameter, said first sensor being configured to detect a change in condition of or within the absorbent article; - a second sensor configured to measure a second physical parameter, said second sensor being configured to detect a change in condition of or within the absorbent article;
A linear motion device in which: a linearly moving element that moves linearly relative to a rail element is provided; load paths through which rolling elements move are provided between the rail element and the linearly moving element; the load paths are made to communicate via return paths with no-load paths provided to the linearly moving element; and endless rolling element circulation paths configured from the load paths, the return paths, and the no-load paths are formed in at least a left-and-right pair; the rolling elements are cylinders of which the length is at least three times the diameter, the rolling elements are configured so as to circulate through the endless rolling element circulation paths while being rotatably held by rolling element holders configured by spacers provided between adjacent rolling elements and belt-shaped linking elements that link the spacers together at both ends, and the no-load paths are formed by placing no-load path-constituting members in linear holes formed in the linearly moving element, said linear motion device being characterized in that: the no-load path-constituting members are opened at the sides and set into gaps in which the linking elements of the rolling element holders are placed and the linking elements of the rolling element holders are exposed from these gaps so as to face and to be in proximity to the wall surfaces of the linear holes; and characterized further in that: the gaps in which the linking elements of the rolling element holders are placed are provided to the no-load path-constituting members along the longitudinal direction of the no-load path-constituting members.
A hearing system including at least one hearing aid and a personal communication device each including a respective short range radio transceiver (30, 47) for providing a short range radio communication link, - the personal communication device including application software providing a user interface for controlling the operation of said at least one hearing aid, characterized in - that the at least one hearing aid has a processor and a user operable control, wherein the processor, upon activation of the user operable control, is adapted for the sending of an activation signal to the personal communication device; and - that the personal communication device has a processor adapted for opening the user interface upon reception of the activation signal from the at least one hearing aid. - the personal communication device including application software providing a user interface for controlling the operation of said at least one hearing aid, characterized in - that the at least one hearing aid has a processor and a user operable control, wherein the processor, upon activation of the user operable control, is adapted for the sending of an activation signal to the personal communication device; and - that the personal communication device has a processor adapted for opening the user interface upon reception of the activation signal from the at least one hearing aid.
A combination comprising 3-({5-chloro-1-[3-(methylsulfonyl)propyl]-1 H -indol-2-yl}methyl)-1-(2,2,2-trifluoroethyl)-1,3-dihydro-2H-imidazo[4,5-c]pyridin-2-one, or a pharmaceutically acceptable salt thereof, as Compound A, and Compound B selected from ribavirin, or a pharmaceutically acceptable salt thereof; for use in treating or ameliorating respiratory syncytial virus infection.
In combination, a thread forming tool (7, 107) and an implant (1, 101), wherein the thread forming tool (7, 107) has a thread forming section (12,112) with a helical thread having at least one cutting surface for cutting a thread in bone; the implant (1, 101) comprises a bone apposition surface (23, 123) having at least one helical thread for position at least partially in the thread of the bone; and a longitudinal cross-sectional shape of at least a portion of the helical thread of the thread forming section (12,112) substantially corresponds to a longitudinal cross-sectional shape of at least a portion of the helical thread of the implant (1, 101), wherein a dimension of said cross-sectional shape of the helical thread of the thread forming section is smaller than a corresponding dimension of said cross-sectional shape of the helical thread of the implant, wherein said dimension of the thread forming section (12, 112) and the implant (1, 101) are measured when they are aligned in a position corresponding to their final position, and at a lateral cross-section of the thread forming section (12, 112) and the implant (1, 101) which is located at the same distance from a coronal end of the implant (1, 101) such that condensing of the bone is enabled upon insertion of the implant in the bone, wherein the thread forming section (12,112) is at least partially tapering outwardly, relative to a central longitudinal axis of said thread forming tool, from its apical end towards its coronal end, wherein an apical portion of the implant (1, 101) is at least partially tapering outwardly, relative to a central longitudinal axis of said implant (1, 101), from its apical end towards its coronal end, a maximum diameter of an apical portion of the bone apposition surface (23; 123) is equal to a maximum diameter of the thread forming section (12, 112) in order to provide for passively threading the implant (1; 101) into the thread so that the implant can be inserted to a certain depth without condensing the bone, and the maximum diameter of the apical portion of the bone apposition surface (23; 123) is larger than a maximum diameter of an apical portion (13; 113) of the thread forming section (12; 112).
A light irradiation device (1A, 1B), comprising: a light emitting element; and a substrate on which the light emitting element is mounted, the substrate comprising a laminated body constituted so that a plurality of insulating layers (41, 42) are laminated, a first heat transfer member disposed in the laminated body so that a part thereof is located directly below the light emitting element, and a second heat transfer member disposed between the insulating layers (41, 42) so as to surround the first heat transfer member when seen in a plan view, thermal conductivities of the first heat transfer member and second heat transfer member being higher than a thermal conductivity of the laminated body, characterized by an electrical wiring which is disposed on at least one of the surface and an inside of the laminated body, and via which light emitting elements are electrically connected to each other, the electrical wiring comprising an anode wiring connected to an anode of the light emitting elements, a cathode wiring connected to a cathode of the light emitting element, and a common wiring which connects anodes and cathodes of the light emitting elements; and an electrode layer which is connected to any one of the anode wiring and the cathode wiring by being interposed between the insulating layers (41, 42) which are close thereto. a light emitting element; and a substrate on which the light emitting element is mounted, the substrate comprising a laminated body constituted so that a plurality of insulating layers (41, 42) are laminated, a first heat transfer member disposed in the laminated body so that a part thereof is located directly below the light emitting element, and a second heat transfer member disposed between the insulating layers (41, 42) so as to surround the first heat transfer member when seen in a plan view, thermal conductivities of the first heat transfer member and second heat transfer member being higher than a thermal conductivity of the laminated body, characterized by an electrical wiring which is disposed on at least one of the surface and an inside of the laminated body, and via which light emitting elements are electrically connected to each other, the electrical wiring comprising an anode wiring connected to an anode of the light emitting elements, a cathode wiring connected to a cathode of the light emitting element, and a common wiring which connects anodes and cathodes of the light emitting elements; and an electrode layer which is connected to any one of the anode wiring and the cathode wiring by being interposed between the insulating layers (41, 42) which are close thereto.