mhurhangee/patent-ind-claim-en huggingface dataset:
A plastic tailgate structure for automobile, comprising an inner panel and a cover part of the tailgate which are joined with each other, wherein on a surface of the inner panel is provided a plastic joining member comprising a first joining plate connected with the inner panel and a second joining plate joined with the cover part of the tailgate, wherein the first joining plate is integrally formed with the second joining plate in a general L-shape with an almost right angle between them, characterized in that the joining member is further provided with at least a first reinforcing rib and a second reinforcing rib which are both connected with the first joining plate and the second joining plate , and in that the joining member is further provided with at least a third joining plate , two opposite ends of the third joining plate being connected respectively with the second reinforcing rib and the inner panel .
A roller battery device for supporting a hauling cable of an aerial cable transportation system ; the roller battery device being configured for identifying a longitudinal axis (L) of support for the hauling cable and comprising: - an entry rocker arm ; - a first entry roller coupled to the entry rocker arm in a rotating manner about a rotation axis orthogonal to the longitudinal axis (L); characterised in that - the first entry roller is slidable along the rotation axis ; - the first entry roller is slidable in a sprung manner along the rotation axis to define a neutral position in absence of external transverse force (T) orthogonal to the longitudinal axis (L) and a plurality of transverse positions depending on the external transverse force (T) present. - an entry rocker arm ; - a first entry roller coupled to the entry rocker arm in a rotating manner about a rotation axis orthogonal to the longitudinal axis (L); characterised in that - the first entry roller is slidable along the rotation axis ; - the first entry roller is slidable in a sprung manner along the rotation axis to define a neutral position in absence of external transverse force (T) orthogonal to the longitudinal axis (L) and a plurality of transverse positions depending on the external transverse force (T) present.
An axial flow pump having a motor and a pump wheel driven by the motor, wherein the pump wheel is rotatable about an axis of rotation and is shaped to feed fluid in a direction substantially parallel to the axis of rotation, wherein the pump wheel comprises a carrier housing driven by the motor and a pump insert supported by the carrier housing, characterized in that the pump insert is made of filter material and defines a plurality of impeller blades for feeding fluid in a direction substantially parallel to the axis of rotation of the pump wheel .
A medical imaging apparatus comprising: a calibration phantom ; an X-ray radiation unit configured to radiate X-rays onto an object and onto the calibration phantom , according to a first irradiating condition for a pre-shot; and a detector configured to detect the X-rays having passed through the object and through the calibration phantom, wherein the calibration phantom is disposed not to overlap the object on the detector; characterized by a controller configured to acquire calibration information including a density of the object based on a pixel value of the calibration phantom included in a pre-shot image acquired from the detected X-rays, and determine a second irradiating condition for main imaging by using said calibration information including the density of the object based on the pre-shot image. a calibration phantom ; an X-ray radiation unit configured to radiate X-rays onto an object and onto the calibration phantom , according to a first irradiating condition for a pre-shot; and a detector configured to detect the X-rays having passed through the object and through the calibration phantom, wherein the calibration phantom is disposed not to overlap the object on the detector; characterized by a controller configured to acquire calibration information including a density of the object based on a pixel value of the calibration phantom included in a pre-shot image acquired from the detected X-rays, and determine a second irradiating condition for main imaging by using said calibration information including the density of the object based on the pre-shot image.
A method for determining welding parameters to produce a weld joint having a predetermined strength, the method comprising: forming by a servo-controlled ultrasonic welding process a plurality of sample assemblies using one of a weld velocity or a dynamic hold velocity as a varying weld process setting; measuring a plurality of melt layer thicknesses of weld joints for the plurality of sample assemblies ; measuring a plurality of failure loads of weld joints for the plurality of sample assemblies , each of the measured plurality of failures loads being associated with one of the measured plurality of melt layer thicknesses ; selecting a first failure load from the plurality of measured failure loads responsive to determining that the first failure load corresponds to a predetermined weld strength; and selecting a first melt layer thickness from the plurality of measured melt layer thicknesses that is associated with the selected first measured failure load, wherein measuring the plurality of failures loads includes applying a tensile strength test to at least some of the plurality of sample assemblies . forming by a servo-controlled ultrasonic welding process a plurality of sample assemblies using one of a weld velocity or a dynamic hold velocity as a varying weld process setting; measuring a plurality of melt layer thicknesses of weld joints for the plurality of sample assemblies ; measuring a plurality of failure loads of weld joints for the plurality of sample assemblies , each of the measured plurality of failures loads being associated with one of the measured plurality of melt layer thicknesses ; selecting a first failure load from the plurality of measured failure loads responsive to determining that the first failure load corresponds to a predetermined weld strength; and selecting a first melt layer thickness from the plurality of measured melt layer thicknesses that is associated with the selected first measured failure load, wherein measuring the plurality of failures loads includes applying a tensile strength test to at least some of the plurality of sample assemblies .
A method, comprising: executing, by a cloud gaming machine , a session of a cloud video game, the session configured to generate gameplay video; streaming the gameplay video from the cloud gaming machine over a network to a primary user device , the primary user device configured to render the gameplay video to a primary display ; wherein the primary user device is configured to stream the gameplay video over a peer-to-peer network to two or more secondary user devices , each of said secondary user devices being configured to render the gameplay video, respectively, to two or more secondary displays ; transmitting secondary inputs, that are generated from interactive gameplay associated with the one or more secondary user devices, from the respective secondary user devices to the primary user device; wherein the primary user device is configured to process primary inputs, that are generated from interactive gameplay associated with the primary user device, and the secondary inputs to generate aggregated inputs; receiving, over the network by the cloud gaming machine, the aggregated inputs from the primary user device; wherein executing the session of the cloud video game includes applying the aggregated inputs to update a game state of the cloud video game that is processed to generate the gameplay video. executing, by a cloud gaming machine , a session of a cloud video game, the session configured to generate gameplay video; streaming the gameplay video from the cloud gaming machine over a network to a primary user device , the primary user device configured to render the gameplay video to a primary display ; wherein the primary user device is configured to stream the gameplay video over a peer-to-peer network to two or more secondary user devices , each of said secondary user devices being configured to render the gameplay video, respectively, to two or more secondary displays ; transmitting secondary inputs, that are generated from interactive gameplay associated with the one or more secondary user devices, from the respective secondary user devices to the primary user device; wherein the primary user device is configured to process primary inputs, that are generated from interactive gameplay associated with the primary user device, and the secondary inputs to generate aggregated inputs; receiving, over the network by the cloud gaming machine, the aggregated inputs from the primary user device; wherein executing the session of the cloud video game includes applying the aggregated inputs to update a game state of the cloud video game that is processed to generate the gameplay video.
An apparatus for controlling an inverter , comprising: a volatile, first storage part ; a nonvolatile, second storage part ; and a control part configured to store data related to a status of the inverter in the first storage part when the inverter is driven and configured to select some of the data stored in the first storage part when a failure event occurs and store the selected data in the second storage part depending on the type of the failure event; characterized by a third storage part configured to store the type of data related to the inverter status to be stored in the second storage part depending on the type of the failure event a volatile, first storage part ; a nonvolatile, second storage part ; and a control part configured to store data related to a status of the inverter in the first storage part when the inverter is driven and configured to select some of the data stored in the first storage part when a failure event occurs and store the selected data in the second storage part depending on the type of the failure event; characterized by a third storage part configured to store the type of data related to the inverter status to be stored in the second storage part depending on the type of the failure event
A laundry machine, comprising: - a tub for receiving wash water; - a drum rotatably provided in the tub ; - an air supply device provided at an upper part of the tub for heating air discharged from the tub and introducing the heated air into the tub ; and - a cooling water supply device to supply cooling water to a rear inner surface of the tub such that the rear inner surface of the tub forms a condensing surface to generate condensed water, wherein the cooling water supply device comprises: - a cooling water line forming a route along which the cooling water flows; and - a cooling water nozzle fixed to the tub and including a connection end to which the cooling water line is connected, and a nozzle end for spraying the cooling water to the rear of the tub . - a tub for receiving wash water; - a drum rotatably provided in the tub ; - an air supply device provided at an upper part of the tub for heating air discharged from the tub and introducing the heated air into the tub ; and - a cooling water supply device to supply cooling water to a rear inner surface of the tub such that the rear inner surface of the tub forms a condensing surface to generate condensed water, wherein the cooling water supply device comprises: - a cooling water line forming a route along which the cooling water flows; and - a cooling water nozzle fixed to the tub and including a connection end to which the cooling water line is connected, and a nozzle end for spraying the cooling water to the rear of the tub .
A network operation, administration, and maintenance, OAM, method, comprising: receiving , by a unified OAM management center, a fault alarm message sent by a maintenance point, MP, wherein the fault alarm message comprises fault information; determining , by the unified OAM management center according to the fault alarm message, a first maintenance set to which the MP belongs, wherein the first maintenance set comprises MPs using a first OAM technology; querying , by the unified OAM management center, an OAM database, to obtain a second maintenance set interacting with the first maintenance set, wherein the second maintenance set comprises MPs using a second OAM technology, and the OAM database saves interaction information of different maintenance sets; and sending , by the unified OAM management center, a fault notification message to all MPs in the second maintenance set or an MP that is determined according to a policy in the second maintenance set, wherein the fault notification message comprises the fault information; wherein the first OAM technology and the second OAM technology are selected from a Connectivity Fault Management, CFM, technology and a Bidirectional Forwarding Detection, BFD, technology. receiving , by a unified OAM management center, a fault alarm message sent by a maintenance point, MP, wherein the fault alarm message comprises fault information; determining , by the unified OAM management center according to the fault alarm message, a first maintenance set to which the MP belongs, wherein the first maintenance set comprises MPs using a first OAM technology; querying , by the unified OAM management center, an OAM database, to obtain a second maintenance set interacting with the first maintenance set, wherein the second maintenance set comprises MPs using a second OAM technology, and the OAM database saves interaction information of different maintenance sets; and sending , by the unified OAM management center, a fault notification message to all MPs in the second maintenance set or an MP that is determined according to a policy in the second maintenance set, wherein the fault notification message comprises the fault information; wherein the first OAM technology and the second OAM technology are selected from a Connectivity Fault Management, CFM, technology and a Bidirectional Forwarding Detection, BFD, technology.
A method on a computing device configured as an edge device node in a cluster of edge device nodes located at a network edge between a local network and a server computing device , the computing device being further configured as an orchestrator for orchestrating a process of updating system software of the edge device nodes of the cluster to help ensure that each edge device node of the cluster is configured to boot into a same version of a system disk image, the method comprising: booting from a system disk image at a boot location within a storage device of the computing device; receiving , from the server computing device, an updated system disk image and storing the updated system disk image within the storage device of the computing device; changing the boot location from a location of the system disk image to a location of the updated system disk image; booting from the updated system disk image; receiving an instruction to roll back to a prior version of the system disk image, the instruction being an instruction automatically generated at the computing device when an error is detected at the computing device or automatically generated at an other edge device node of the cluster when an error is detected at the other edge device node of the cluster; instructing the edge device nodes of the cluster to boot from the prior version of the system disk image, thereby ensuring that each edge device node of the cluster boots into the same version of the system disk image; based on receiving the instruction to roll back, changing the boot location from the location of the updated system disk image to a location of the prior version of the system disk image; and booting from the prior version of the system disk image. booting from a system disk image at a boot location within a storage device of the computing device; receiving , from the server computing device, an updated system disk image and storing the updated system disk image within the storage device of the computing device; changing the boot location from a location of the system disk image to a location of the updated system disk image; booting from the updated system disk image; receiving an instruction to roll back to a prior version of the system disk image, the instruction being an instruction automatically generated at the computing device when an error is detected at the computing device or automatically generated at an other edge device node of the cluster when an error is detected at the other edge device node of the cluster; instructing the edge device nodes of the cluster to boot from the prior version of the system disk image, thereby ensuring that each edge device node of the cluster boots into the same version of the system disk image; based on receiving the instruction to roll back, changing the boot location from the location of the updated system disk image to a location of the prior version of the system disk image; and booting from the prior version of the system disk image.
A method comprising: receiving a first biopotential signal, comprising information indicative of a first type of biopotential, obtained by a first capacitive sensor; receiving a second biopotential signal, comprising information indicative of the first type of biopotential, obtained by a second capacitive sensor, wherein the first capacitive sensor and the second capacitive sensor are positioned at different locations on a subject, not in direct electrical contact with the subject; synchronising further biopotential signals, comprising information indicative of a second, different type of biopotential, obtained by the first capacitive sensor and the second capacitive sensor by applying a time adjustment to biopotential signals obtained by at least one of the first capacitive sensor or the second capacitive sensor; wherein features in at least one of the first biopotential signal and the second biopotential signal are used to synchronise the further biopotential signals obtained by the first capacitive sensor and the second capacitive sensor. receiving a first biopotential signal, comprising information indicative of a first type of biopotential, obtained by a first capacitive sensor; receiving a second biopotential signal, comprising information indicative of the first type of biopotential, obtained by a second capacitive sensor, wherein the first capacitive sensor and the second capacitive sensor are positioned at different locations on a subject, not in direct electrical contact with the subject; synchronising further biopotential signals, comprising information indicative of a second, different type of biopotential, obtained by the first capacitive sensor and the second capacitive sensor by applying a time adjustment to biopotential signals obtained by at least one of the first capacitive sensor or the second capacitive sensor; wherein features in at least one of the first biopotential signal and the second biopotential signal are used to synchronise the further biopotential signals obtained by the first capacitive sensor and the second capacitive sensor.
A shared data recycling method performed at a first node, the first node being any node of a data sharing system, and the method comprising: obtaining a first eigenvalue of the first node after receiving a recycling request carrying a first block height, the first eigenvalue being used to uniquely indicate data in a range of block height less than the first block height in shared data stored by the first node; broadcasting the first eigenvalue to at least one second node of the data sharing system, the second node being a node other than the first node; in a case that a plurality of second eigenvalues broadcasted by the at least one second node are received, broadcasting recycling instruction information to the at least one second node if determining, based on the first eigenvalue and the plurality of second eigenvalues, that data in the range of block height less than the first block height in the shared data stored by all nodes of the data sharing system is consistent, wherein each of the second eigenvalues is used to uniquely indicate data in the range of block height less than the first block height in the shared data stored by the second node broadcasting the second eigenvalue; and recycling the data in the range of block height less than the first block height in the shared data if receiving a preset quantity of pieces of the recycling instruction information. obtaining a first eigenvalue of the first node after receiving a recycling request carrying a first block height, the first eigenvalue being used to uniquely indicate data in a range of block height less than the first block height in shared data stored by the first node; broadcasting the first eigenvalue to at least one second node of the data sharing system, the second node being a node other than the first node; in a case that a plurality of second eigenvalues broadcasted by the at least one second node are received, broadcasting recycling instruction information to the at least one second node if determining, based on the first eigenvalue and the plurality of second eigenvalues, that data in the range of block height less than the first block height in the shared data stored by all nodes of the data sharing system is consistent, wherein each of the second eigenvalues is used to uniquely indicate data in the range of block height less than the first block height in the shared data stored by the second node broadcasting the second eigenvalue; and recycling the data in the range of block height less than the first block height in the shared data if receiving a preset quantity of pieces of the recycling instruction information.
A work vehicle comprising an engine and an air intake system for supplying air to the engine of the work vehicle , the air intake system comprising: a cooler box including a first wall and a second wall , the first and second walls at least partially defining a chamber within the cooler box , one or more heat exchangers , housed in the chamber within the cooler box , a supply line for providing a fluid from the engine to the one or more heat exchangers for cooling thereof, a return line for conveying the fluid from the one or more heat exchangers back to the engine , and a screen defining at least a portion of the first wall of the cooler box , the screen being configured to remove particles present in air entering the chamber of the cooler box , the air intake system being characterized by : an air filter assembly defining at least a portion of the second wall of the cooler box , the air filter assembly including an air filter element configured to remove particles present in the air exiting the chamber of the cooler box through the air filter assembly , wherein the air exiting the cooler box through the air filter assembly is supplied to the engine for combustion. a cooler box including a first wall and a second wall , the first and second walls at least partially defining a chamber within the cooler box , one or more heat exchangers , housed in the chamber within the cooler box , a supply line for providing a fluid from the engine to the one or more heat exchangers for cooling thereof, a return line for conveying the fluid from the one or more heat exchangers back to the engine , and a screen defining at least a portion of the first wall of the cooler box , the screen being configured to remove particles present in air entering the chamber of the cooler box , an air filter assembly defining at least a portion of the second wall of the cooler box , the air filter assembly including an air filter element configured to remove particles present in the air exiting the chamber of the cooler box through the air filter assembly , wherein the air exiting the cooler box through the air filter assembly is supplied to the engine for combustion.