mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: by a computing system (100, 700): accessing a database upgrade to perform for a production database; generating multiple clones of the production database, including a production clone of the production database that is a full copy of the production database at a given time and a delta clone that is a copy of the production database at the given time with instance data removed; performing the database upgrade on the production clone; tracking changes to the production database from the given time until the database upgrade of the production clone completes; pushing the tracked changes to the delta clone, and after the database upgrade on the production clone completes: performing the database upgrade on the delta clone; pushing upgraded data of the delta clone to the upgraded production clone; and setting the upgraded production clone as an upgraded version of the production database. accessing a database upgrade to perform for a production database; generating multiple clones of the production database, including a production clone of the production database that is a full copy of the production database at a given time and a delta clone that is a copy of the production database at the given time with instance data removed; performing the database upgrade on the production clone; tracking changes to the production database from the given time until the database upgrade of the production clone completes; pushing the tracked changes to the delta clone, and after the database upgrade on the production clone completes: performing the database upgrade on the delta clone; pushing upgraded data of the delta clone to the upgraded production clone; and setting the upgraded production clone as an upgraded version of the production database. performing the database upgrade on the delta clone; pushing upgraded data of the delta clone to the upgraded production clone; and setting the upgraded production clone as an upgraded version of the production database.
Centrifugal pump having a device for mounting a moving component on a stationary component, in particular for shaft mounting, the moving component and the stationary component being held at a distance from one another by means of a field generated by a magnet arrangement, the magnet arrangement having a stationary magnet and a rotating magnet, characterized in that a fluid which is at least partly composed of an ionic liquid is arranged between the rotating magnet and the stationary magnet.
Wearable aid for assisting in lifting and/or holding of loads by an operator, comprising - a support structure having a first support and a second support, wherein the first support and the second support each have a back portion (24-1, 24-2) and an extension arm portion (26-1, 26-2) such that, when the aid is worn by the operator, the back portion (24-1, 24-2) is arranged posteriorly and extends substantially along the back of the operator and the extension arm portion (26- 1, 26-2) extends from posterior to anterior; - a lower body attachment for coupling the support structure to a pelvic, hip and/or lumbar region of the operator; - an upper body attachment for coupling the support structure to an upper body of the operator, in particular to a back, shoulder and/or chest region; - a first hand attachment for attachment to a right hand region or forearm region of the operator, wherein the first hand attachment is connected to the first support via a first length-adjustable connecting device; - a second hand attachment for attachment to a left hand region or forearm region of the operator, wherein the second hand attachment is connected to the second support via a second length-adjustable connecting device, wherein the first support is connected to the lower body attachment at a first lower connecting point and wherein the second support is connected to the lower body attachment at a second lower connecting point, wherein the lower body attachment is designed such that a relative position of the first lower connecting point and the second lower connecting point can be changed. - a support structure having a first support and a second support, wherein the first support and the second support each have a back portion (24-1, 24-2) and an extension arm portion (26-1, 26-2) such that, when the aid is worn by the operator, the back portion (24-1, 24-2) is arranged posteriorly and extends substantially along the back of the operator and the extension arm portion (26- 1, 26-2) extends from posterior to anterior; - a lower body attachment for coupling the support structure to a pelvic, hip and/or lumbar region of the operator; - an upper body attachment for coupling the support structure to an upper body of the operator, in particular to a back, shoulder and/or chest region; - a first hand attachment for attachment to a right hand region or forearm region of the operator, wherein the first hand attachment is connected to the first support via a first length-adjustable connecting device; - a second hand attachment for attachment to a left hand region or forearm region of the operator, wherein the second hand attachment is connected to the second support via a second length-adjustable connecting device,
A respiratory gas humidifier for use in a respiratory gas delivery system, the humidifier comprising an inlet for receiving respiratory gases from a separate ventilator, a heater for transferring heat energy to a water reservoir, and a controller configured to receive data signals from a core body temperature sensor located remotely of the humidifier, the controller being configured to control operation of the heater based upon said received data signals in order to achieve a desired temperature and/or humidification of the respiratory gas supplied to a patient via the gas delivery system.
An electronic device, comprising a front wall; a first printed circuit board; an actuation reset switch; and a reset button assembly having an activation end and a reset button end, wherein the reset button end has a reset button and the activation end has an actuation prong, the actuation prong faces the actuation reset switch, characterized in that the first printed circuit board is on an interior surface of the front wall, and the actuation reset switch is on the first printed circuit board on a side of the first printed circuit board opposite the front wall, wherein the reset button assembly has a fulcrum between the activation end and the reset button end, and the reset button faces the same direction as the actuation prong, wherein the reset button assembly is configured to reset the electronic device when an inward force is applied to the reset button, the inward force causes the reset button assembly to rotate about the fulcrum such that the actuation prong applies a forward activation force to the actuation reset switch to initiate the reset, the inward force and forward activation force being in opposite directions, wherein the electronic device comprises a spring leg that faces the interior surface of the front wall and is perpendicular to the interior surface of the front wall, the spring leg being between the fulcrum and the actuation prong, the spring leg being configured to secure the reset button assembly in position such that the actuation prong is adjacent the actuation reset switch and positioned to activate the actuation reset switch when the inward force is applied, wherein the electronic device comprises a second printed circuit board, and an information card reader on the second printed circuit board, and wherein the electronic device comprises a top heat sink having a planar peripheral portion surrounding a central depression portion, the central depression portion contacting a heat generating component on the second printed circuit board.
A method of providing apparatus for use on an aircraft, the method comprising: providing a first store and a first payload, the first payload being mounted on or at least partially housed within the first store, the first store being for mounting to an external surface of the aircraft such that the combination of the first store and first payload is wholly outside the aircraft; acquiring one or more aerodynamic properties, one or more moments of inertia, and the mass distribution of the combination of the first store and first payload; providing a second store and a second payload, the second payload being mounted on or at least partially housed within the second store, the second store being for mounting to an external surface of the aircraft such that the combination of the second store and second payload is wholly outside the aircraft, the second payload being different to the first payload, the second payload comprising a sensor and/or a projecting means, the sensor being for measuring parameters of one or more entities that are remote from the aircraft, the projecting means being for projecting a mark onto a surface; and configuring the second store and the second payload such that the one or more aerodynamic properties, one or more moments of inertia, and the mass distribution of the combination of the second store and the second payload are substantially the same as those of the combination of the first store and first payload, thereby providing the apparatus. providing a first store and a first payload, the first payload being mounted on or at least partially housed within the first store, the first store being for mounting to an external surface of the aircraft such that the combination of the first store and first payload is wholly outside the aircraft; acquiring one or more aerodynamic properties, one or more moments of inertia, and the mass distribution of the combination of the first store and first payload; providing a second store and a second payload, the second payload being mounted on or at least partially housed within the second store, the second store being for mounting to an external surface of the aircraft such that the combination of the second store and second payload is wholly outside the aircraft, the second payload being different to the first payload, the second payload comprising a sensor and/or a projecting means, the sensor being for measuring parameters of one or more entities that are remote from the aircraft, the projecting means being for projecting a mark onto a surface; and configuring the second store and the second payload such that the one or more aerodynamic properties, one or more moments of inertia, and the mass distribution of the combination of the second store and the second payload are substantially the same as those of the combination of the first store and first payload, thereby providing the apparatus.
A composite porous object which comprises a biodegradable and bioabsorbable polymer containing bioactive bioceramic particles dispersed therein, characterized by having in inner parts thereof large voids having a void diameter of 40-600 μm and small voids having a void diameter of 1 μm or smaller, at least part of the large voids and at least part of the small voids constituting interconnected voids, wherein the biodegradable and bioabsorbable polymer walls which surround the large voids have the small voids formed therein and in the surface thereof, wherein the small voids have an average void diameter of 0.2 μm as evaluated by pore evaluation in accordance with JIS R1655.
Load cell, which is essentially rotationally symmetrical and cylindrical and has a rotational axis A, comprising an inner cylindrical metal core, a load introduction plate concentrically formed thereon, which extends substantially over the entire diameter of the load cell, a connecting web, which is thin and thus flexible or articulated when acted upon by force, concentrically formed on the metal core, radially outwardly extending and axially spaced from the load introduction plate, by means of which an annular deformation body is connected to the load introduction plate, wherein on the radially outer side of the deformation body, the latter is connected by a second connecting web, which is likewise annular, concentrically arranged, thin, preferably flexible or articulated upon action of force, to an annular, concentrically constructed load discharge part 5, and wherein the load discharge part extends from the connecting web axially in the opposite direction to the load introduction plate, and a concentrically formed mounting flange, which is attached on the radially outer side of the load discharge part via a third, likewise annular, concentrically arranged, thin, thus flexible or articulated connecting web.
Hollow needle assembly (9; 54; 62) for a conveyance device (1; 56) for conveying a liquid between a storage container and at least one further application container - with a hollow needle, - with a pointed free needle end, - with at least one liquid channel, opening out via a liquid channel opening (40, 41) into the area of the free needle end, for transporting liquid through the hollow needle, and - with at least one ventilation gas channel, opening out via a gas channel opening into the area of the free needle end, for transporting gas through the hollow needle assembly (9; 54; 62), - wherein the channel ways of the at least one liquid channel on the one hand and of the at least one ventilation gas channel on the other hand run separately from each other, - wherein a section of the ventilation gas channel is configured by an annular space between the hollow needle and a needle sleeve surrounding same, - wherein, in a gas flow path through the ventilation gas channel, starting from the gas channel opening at the free needle end, an annular air filter is arranged subsequently to the annular space, - wherein the gas flow path between the gas channel opening at the free needle end and the air filter shows a channel section for direction reversal, in which an axial main gas flow direction reverses itself, characterized in that in the annular space, an axial channel body is arranged, which causes a lengthening of an axial distance of the ventilation gas channel before the channel section for direction reversal. - with a hollow needle, - with a pointed free needle end, - with at least one liquid channel, opening out via a liquid channel opening (40, 41) into the area of the free needle end, for transporting liquid through the hollow needle, and - with at least one ventilation gas channel, opening out via a gas channel opening into the area of the free needle end, for transporting gas through the hollow needle assembly (9; 54; 62), - wherein the channel ways of the at least one liquid channel on the one hand and of the at least one ventilation gas channel on the other hand run separately from each other, - wherein a section of the ventilation gas channel is configured by an annular space between the hollow needle and a needle sleeve surrounding same, - wherein, in a gas flow path through the ventilation gas channel, starting from the gas channel opening at the free needle end, an annular air filter is arranged subsequently to the annular space, - wherein the gas flow path between the gas channel opening at the free needle end and the air filter shows a channel section for direction reversal, in which an axial main gas flow direction reverses itself,
A battery management system comprising: a pack voltage sampling unit configured to periodically sample a pack voltage of a battery pack (100, B); a pack current sampling unit configured to sample a pack current of the battery pack; and a control unit configured to, after starting to sample the pack voltage of the battery pack, when the pack voltage sampling of the battery pack is completed, record a time from a sampling start time of the pack voltage to a sampling completion time of the pack voltage as a first time (Δp), and transmit a voltage sampling synchronization signal for measuring a cell voltage of a battery cell to a plurality of lower-level battery management systems, wherein the control unit performs sampling synchronization on sampled measurement signals between each lower-level battery management system based on a second time (Δs) and the first time, wherein the second time is a sampling time during which a cell voltage measurement received from each lower-level battery management system of the plurality of lower-level battery management systems is performed so that the second time is a time from when sampling is started after receiving the measurement synchronization signal to when the sampling is completed. a pack voltage sampling unit configured to periodically sample a pack voltage of a battery pack (100, B); a pack current sampling unit configured to sample a pack current of the battery pack; and a control unit configured to, after starting to sample the pack voltage of the battery pack, when the pack voltage sampling of the battery pack is completed, record a time from a sampling start time of the pack voltage to a sampling completion time of the pack voltage as a first time (Δp), and transmit a voltage sampling synchronization signal for measuring a cell voltage of a battery cell to a plurality of lower-level battery management systems, wherein the control unit performs sampling synchronization on sampled measurement signals between each lower-level battery management system based on a second time (Δs) and the first time, wherein the second time is a sampling time during which a cell voltage measurement received from each lower-level battery management system of the plurality of lower-level battery management systems is performed so that the second time is a time from when sampling is started after receiving the measurement synchronization signal to when the sampling is completed.
A wire harness fixing structure characterized by comprising: a cooling medium tank provided with a cooling medium relief valve; a sensor that is installed in the cooling medium tank; a connection terminal that is located beyond the cooling medium relief valve as viewed from a position where the sensor is installed; a wire harness that electrically connects the sensor to the connection terminal; and a bracket that is fastened to the cooling medium tank and that fixes the wire harness, the bracket including a fastened portion that is fastened to the cooling medium tank, and a retention portion that has a substantially U-shaped form closed at a side facing the cooling medium relief valve and that retains the wire harness in the U-shaped form. a cooling medium tank provided with a cooling medium relief valve; a sensor that is installed in the cooling medium tank; a connection terminal that is located beyond the cooling medium relief valve as viewed from a position where the sensor is installed; a wire harness that electrically connects the sensor to the connection terminal; and a bracket that is fastened to the cooling medium tank and that fixes the wire harness, the bracket including a fastened portion that is fastened to the cooling medium tank, and a retention portion that has a substantially U-shaped form closed at a side facing the cooling medium relief valve and that retains the wire harness in the U-shaped form.
A method for providing contents by a source device in a communication system, the method comprising: discovering, by the source device, multiple sink devices (130, 150, 170) that will communicate with the source device; identifying, by the source device, a device type for each of the discovered multiple sink devices; establishing, by the source device, an independent miracast session using a real-time streaming protocol, RTSP, with the each of the discovered multiple sink devices; generating, by the source device, multiple contents for the discovered multiple sink devices, each of the multiple contents being for providing an identical application and having an user interface generated based on the device type of a corresponding sink device of the discovered multiple sink devices; and providing, by the source device, each of the generated multiple contents through an independent miracast session which is established with the corresponding sink device; and when status change information is received from a first sink device of the multiple sink devices, controlling, by the source device, the provided content in response to the status change information and providing the controlled content to each sink device of the multiple sink devices, wherein the device type of the corresponding sink device is identified based on at least one of a capacity or a function of the corresponding sink device. discovering, by the source device, multiple sink devices (130, 150, 170) that will communicate with the source device; identifying, by the source device, a device type for each of the discovered multiple sink devices; establishing, by the source device, an independent miracast session using a real-time streaming protocol, RTSP, with the each of the discovered multiple sink devices; generating, by the source device, multiple contents for the discovered multiple sink devices, each of the multiple contents being for providing an identical application and having an user interface generated based on the device type of a corresponding sink device of the discovered multiple sink devices; and providing, by the source device, each of the generated multiple contents through an independent miracast session which is established with the corresponding sink device; and when status change information is received from a first sink device of the multiple sink devices, controlling, by the source device, the provided content in response to the status change information and providing the controlled content to each sink device of the multiple sink devices, wherein the device type of the corresponding sink device is identified based on at least one of a capacity or a function of the corresponding sink device.
A tissue product comprising at least 20 weight percent high yield hesperaloe pulp fibers, the tissue product having a GMT from 400 to 1,000 g/3" and a Stiffness Index less than 10.0 as measured in the description. and the high yield hesperaloe pulp having a lignin content from 10 to 15 weight percent.
A treated catalyst for producing hydrocarbons, said treated catalyst being obtainable by providing a catalyst comprising a manganese oxide-based octahedral molecular sieve, iron or cobalt, and potassium, wherein the manganese oxide-containing octahedral molecular sieve comprises K-OMS-2 nanofibers, and treating the catalyst by heating to a temperature of at least 280°C, and preferably from at least 320°C to not greater than 450°C, under an atmosphere comprising hydrogen and at least one of carbon monoxide and carbon dioxide in a pressure range from 2 atmospheres to 20 atmospheres to form carbides of either iron or cobalt.
Method for encoding 3D video signals wherein a 3D video signal is encoded, the 3D video signal comprising a centre view video frame comprising pixel data for a centre view, a depth map for the centre view video frame and an occlusion data frame for the centre view video frame wherein the occlusion data frame comprises data for image parts behind objects in the centre view, wherein, under control of data in the depth map for the centre view, for the occlusion data frame indications are generated for distinguishing pixel data in the occlusion data frame, relevant for pixel values for image parts behind objects in the centre view, from other data not useable for pixel values, whereafter the occlusion data frame is encoded, characterized in that a fixed pixel value or a pixel value within a fixed range is used in the occlusion data frame as the indications to distinguish the other data (occl="0") from the pixel data (occl ≠"0").
An apparatus for supporting a manufacturing tool relative to a workpiece, the apparatus comprising a track assembly adapted to be attached to the workpiece and including at least one rail, wherein the rail has a longitudinally-extending neutral axis and a rack extending along a pitch line that at least approximately coincides with the longitudinally-extending neutral axis, wherein the rack is integrally-formed in the rail, and wherein the rack comprises a plurality of apertures, wherein at least some of the apertures are tapered, wedge-shaped or tapered, conically-shaped apertures.