mhurhangee/patent-ind-claim-en huggingface dataset:
An intra prediction method, for video decoding, the method comprising the steps of: (S1410) receiving information on prediction for a current block ; (S310, S1420) deriving an intra prediction mode of the current block based on the information on the prediction; and (S340, S1430) generating a predicted block of the current block based on the intra prediction mode, wherein the predicted block comprises predicted samples, wherein the intra prediction mode is a vertical prediction mode, wherein, among the predicted samples, a predicted sample is derived by using a first reference sample located along a vertical prediction direction with regard to a location of the predicted sample , characterized in that the step of generating the predicted block includes filtering the predicted sample when the predicted sample is adjacent to a left boundary of the current block , wherein the filtering the predicted sample is performed based on a second reference sample which is located outside of the current block , is located along a horizontal direction with regard to the location of the predicted sample and is adjacent to the left boundary of the current block . (S1410) receiving information on prediction for a current block ; (S310, S1420) deriving an intra prediction mode of the current block based on the information on the prediction; and (S340, S1430) generating a predicted block of the current block based on the intra prediction mode, wherein the predicted block comprises predicted samples, wherein the intra prediction mode is a vertical prediction mode, wherein, among the predicted samples, a predicted sample is derived by using a first reference sample located along a vertical prediction direction with regard to a location of the predicted sample , characterized in that the step of generating the predicted block includes filtering the predicted sample when the predicted sample is adjacent to a left boundary of the current block , wherein the intra prediction mode is a vertical prediction mode, wherein, among the predicted samples, a predicted sample is derived by using a first reference sample located along a vertical prediction direction with regard to a location of the predicted sample , characterized in that the step of generating the predicted block includes filtering the predicted sample when the predicted sample is adjacent to a left boundary of the current block , wherein the filtering the predicted sample is performed based on a second reference sample which is located outside of the current block , is located along a horizontal direction with regard to the location of the predicted sample and is adjacent to the left boundary of the current block .
A method of aligning a missile with a target in a laser beam riding missile guidance system, the system including a laser transmitter adapted for generating and projecting a laser information field towards the target and an optical sight for aiming the laser information field towards the target, the missile comprising a light sensor , a target sensor , a guidance processor unit and a guidance control for controlling the flight of the missile, the method comprising: detecting, using the light sensor onboard the missile , light in the laser information field; determining, using the guidance processor unit onboard the missile , and based on the detected light, a point in the laser information field with which the missile is currently aligned; determining, using the guidance processor unit onboard the missile , a distance of the target from the missile, wherein the distance of the target from the missile is determined by comparing the distance of the target from the optical sight with the distance of the missile from the laser transmitter; wherein data conveying the distance of the target from the optical sight is received by the missile via the laser information field; determining, using the target sensor onboard the missile , a position of the target relative to the missile, thereby to determine an angular displacement between the missile's current direction of travel and the direction in which the target lies from the missile; determining, using the guidance processor unit onboard the missile , and based on said distance and angular displacement, a new point in the laser information field with which the missile should be aligned to reach the target; and using the guidance control onboard the missile to bring the missile into alignment with the new point in the laser information field. detecting, using the light sensor onboard the missile , light in the laser information field; determining, using the guidance processor unit onboard the missile , and based on the detected light, a point in the laser information field with which the missile is currently aligned; determining, using the guidance processor unit onboard the missile , a distance of the target from the missile, wherein the distance of the target from the missile is determined by comparing the distance of the target from the optical sight with the distance of the missile from the laser transmitter; wherein data conveying the distance of the target from the optical sight is received by the missile via the laser information field; determining, using the target sensor onboard the missile , a position of the target relative to the missile, thereby to determine an angular displacement between the missile's current direction of travel and the direction in which the target lies from the missile; determining, using the guidance processor unit onboard the missile , and based on said distance and angular displacement, a new point in the laser information field with which the missile should be aligned to reach the target; and using the guidance control onboard the missile to bring the missile into alignment with the new point in the laser information field.
Solenoid valve comprising a first port , a second port , a valve element and a valve seat arranged between said first port and said second port , a coil and a yoke arrangement (14-16), said coil being magnetically linked to said yoke arrangement (14-16), said yoke arrangement (14-16) having a movable armature , wherein said valve element is controlled by a pressure difference between a first pressure on a first side of said valve element and a second pressure on a second side of said valve element , at least one of said first pressure and said second pressure being controlled by means of said armature , wherein said armature comprises a first front face at a first end and a second front face at a second end opposite said first end, said first front face and said second front face being connected by a first flow path , wherein said first flow path has first throttling means for keeping low a flow rate of a fluid flowing through said first flow path , a second flow path connects said first side and said second side of said valve element , said second flow path having second throttling means for keeping a low flow rate of a fluid flowing through said second flow path , and said second flow path is arranged between said valve element and a wall of a housing surrounding said valve element , said first flow path is arranged between said armature and a wall of the housing surrounding said armature , wherein said valve element and said armature are arranged within a tubular housing one behind the other.
An injection molding device comprising: a barrel containing a rotating screw , the barrel defining at least one port for receiving a thermoplastic polymer and reinforcing fibers, the barrel also defining at least one port for receiving a blowing agent, the screw having a first section containing flights and a second downstream section containing flights, the second section containing from 3 to 5 flights, the flights contained within the second section being broken thereby defining gaps, characterised in that the first and second sections are separated by a check valve , the gaps have a length of from 10 mm to 20 mm, and the screw has a compression ratio of less than 2.5:1. a barrel containing a rotating screw , the barrel defining at least one port for receiving a thermoplastic polymer and reinforcing fibers, the barrel also defining at least one port for receiving a blowing agent, the screw having a first section containing flights and a second downstream section containing flights, the second section containing from 3 to 5 flights, the flights contained within the second section being broken thereby defining gaps, characterised in that the first and second sections are separated by a check valve , the gaps have a length of from 10 mm to 20 mm, and the screw has a compression ratio of less than 2.5:1.
A virtual machine management method for a cloud platform, wherein the method comprises: obtaining , by the cloud platform, a first client image file and a first license, wherein the first client image file carries a first software operating environment, the first license is used to perform activation authentication on a software in the first software operating environment of the first client image file, and the first client image file is uploaded, by a client, to an Object Storage Service ,OSS, user bucket provided by the cloud platform; providing, by the cloud platform, a Bring Your Own License BYOL, option; receiving, by the cloud platform, an instruction for triggering the BYOL option; generating , by the cloud platform, a first cloud platform image file according to the first client image file in the OSS user bucket, wherein the first cloud platform image file is used to create a first virtual machine on the cloud platform, the software in the first virtual machine is activated based on the first license, and a license fee of the software running on the first virtual machine is exempted in the cloud platform. obtaining , by the cloud platform, a first client image file and a first license, wherein the first client image file carries a first software operating environment, the first license is used to perform activation authentication on a software in the first software operating environment of the first client image file, and the first client image file is uploaded, by a client, to an Object Storage Service ,OSS, user bucket provided by the cloud platform; providing, by the cloud platform, a Bring Your Own License BYOL, option; receiving, by the cloud platform, an instruction for triggering the BYOL option; generating , by the cloud platform, a first cloud platform image file according to the first client image file in the OSS user bucket, wherein the first cloud platform image file is used to create a first virtual machine on the cloud platform, the software in the first virtual machine is activated based on the first license, and a license fee of the software running on the first virtual machine is exempted in the cloud platform.
Method for creating an analysis data set for an evaluation of an ultrasonic test of an object, comprising the steps of: - providing a first and second measurement data set, wherein each measurement data set is based on at least one ultrasonic measurement of a region of the object and a SAFT analysis of the ultrasonic measurement; - associating a first equivalent defect size with a least one volume element of the first measurement data set, wherein the volume element of the first measurement data set is associated with at least a portion of the region; - associating a second equivalent defect size with at least one volume element of the second measurement data set, wherein the volume element of the second measurement data set is associated with at least the portion of the region; - creating the analysis data set having at least one volume element which is associated with at least the portion of the region; and - associating a third equivalent defect size with the volume element of the analysis data set, wherein the third equivalent defect size is formed from the maximum of the first and second equivalent defect sizes. - providing a first and second measurement data set, wherein each measurement data set is based on at least one ultrasonic measurement of a region of the object and a SAFT analysis of the ultrasonic measurement; - associating a first equivalent defect size with a least one volume element of the first measurement data set, wherein the volume element of the first measurement data set is associated with at least a portion of the region; - associating a second equivalent defect size with at least one volume element of the second measurement data set, wherein the volume element of the second measurement data set is associated with at least the portion of the region; - creating the analysis data set having at least one volume element which is associated with at least the portion of the region; and - associating a third equivalent defect size with the volume element of the analysis data set, wherein the third equivalent defect size is formed from the maximum of the first and second equivalent defect sizes.
A vertical furnace for the continuous heat treatment of a metal strip , in particular an electrical steel strip, wherein the vertical furnace , as seen in a conveying direction of the metal strip , comprises - an inlet zone for the metal strip ; - a heating/holding zone with an annealing chamber for heating and holding the metal strip at a certain temperature; - at least one first cooling zone for cooling the metal strip ; - at least one deflection device arranged downstream of the first cooling zone for deflecting the metal strip in the direction of an outlet zone for the metal strip , wherein at least one second cooling zone is arranged downstream of the deflection device with respect to the conveying direction, characterized in that the first cooling zone is configured as a radiation cooling zone for the metal strip, wherein a cooling/heating chamber through which a cooling fluid flows is arranged around the process chamber of the first cooling zone , wherein a lateral surface, which faces the cooling/heating chamber , of a wall surrounding the process chamber is acted upon by the cooling fluid . - an inlet zone for the metal strip ; - a heating/holding zone with an annealing chamber for heating and holding the metal strip at a certain temperature; - at least one first cooling zone for cooling the metal strip ; - at least one deflection device arranged downstream of the first cooling zone for deflecting the metal strip in the direction of an outlet zone for the metal strip , wherein at least one second cooling zone is arranged downstream of the deflection device with respect to the conveying direction, characterized in that the first cooling zone is configured as a radiation cooling zone for the metal strip, wherein a cooling/heating chamber through which a cooling fluid flows is arranged around the process chamber of the first cooling zone , wherein a lateral surface, which faces the cooling/heating chamber , of a wall surrounding the process chamber is acted upon by the cooling fluid .
A preparation method of an organic thin film transistor, comprising: forming a source-drain metal layer including a source electrode and a drain electrode , and forming an organic semiconductor active layer , wherein the organic semiconductor active layer is in contact with the source electrode and the drain electrode ; forming an organic insulating thin film on a substrate where the source-drain metal layer including the source electrode and the drain electrode and the organic semiconductor active layer have been formed; forming a gate electrode ; characterized in that the preparation method comprises: gradually thinning the organic insulating thin film by an etching thinning process and gradually curing the thinned organic insulating thin film by a curing process, or gradually curing the organic insulating thin film by a curing process and gradually thinning the cured organic insulating thin film by an etching thinning process, to form an organic insulating layer . forming a source-drain metal layer including a source electrode and a drain electrode , and forming an organic semiconductor active layer , wherein the organic semiconductor active layer is in contact with the source electrode and the drain electrode ; forming an organic insulating thin film on a substrate where the source-drain metal layer including the source electrode and the drain electrode and the organic semiconductor active layer have been formed; forming a gate electrode ; characterized in that the preparation method comprises: gradually thinning the organic insulating thin film by an etching thinning process and gradually curing the thinned organic insulating thin film by a curing process, or gradually curing the organic insulating thin film by a curing process and gradually thinning the cured organic insulating thin film by an etching thinning process, to form an organic insulating layer .
A brake control device, comprising: an instruction value obtaining unit obtaining an instruction value of an air pressure supplied to an air brake device when braking a railway vehicle , characterized by a cylinder pressure value obtaining unit obtaining a brake cylinder pressure value calculated from the instruction value through a deceleration feedback control; and a determination unit determining whether there is an abnormality of the air brake device based on the instruction value and the brake cylinder pressure value. an instruction value obtaining unit obtaining an instruction value of an air pressure supplied to an air brake device when braking a railway vehicle , characterized by a cylinder pressure value obtaining unit obtaining a brake cylinder pressure value calculated from the instruction value through a deceleration feedback control; and a determination unit determining whether there is an abnormality of the air brake device based on the instruction value and the brake cylinder pressure value.
A method for distributing a streaming media resource in a content delivery network, CDN, comprising: receiving (S11), by a pull-stream edge node, a resource acquisition request directed to a target streaming media resource sent by a pull-stream client terminal; determining, by the pull-stream edge node, whether the target streaming media resource is stored locally according to a resource identifier carried in the resource acquisition request after receiving the resource acquisition request; sending (S13), by the pull-stream edge node, a pull-stream query request to a central scheduling system if the target streaming media resource is un-stored at the pull-stream edge node, and receiving a query result fed back by the central scheduling system, wherein the query result indicates a target push-stream edge node that stores the target streaming media resource, and an optimal transmission path is formed between the target push-stream edge node and the pull-stream edge node; and obtaining (S15), by the pull-stream edge node, the target streaming media resource from the target push-stream edge node indicated by the query result directly, and providing the obtained target streaming media resource to the pull-stream client terminal. receiving (S11), by a pull-stream edge node, a resource acquisition request directed to a target streaming media resource sent by a pull-stream client terminal; determining, by the pull-stream edge node, whether the target streaming media resource is stored locally according to a resource identifier carried in the resource acquisition request after receiving the resource acquisition request; sending (S13), by the pull-stream edge node, a pull-stream query request to a central scheduling system if the target streaming media resource is un-stored at the pull-stream edge node, and receiving a query result fed back by the central scheduling system, wherein the query result indicates a target push-stream edge node that stores the target streaming media resource, and an optimal transmission path is formed between the target push-stream edge node and the pull-stream edge node; and obtaining (S15), by the pull-stream edge node, the target streaming media resource from the target push-stream edge node indicated by the query result directly, and providing the obtained target streaming media resource to the pull-stream client terminal.
An autoinjector comprising a body in the shape of an elongate cylinder that is adapted to receive a reservoir containing fluid and including a piston (P) and a needle, such as a pre-filled syringe, said body comprising a distal portion of circular shape, a middle portion, and a proximal portion, a removable cap being fastened, before the autoinjector is used, to said proximal portion of said body , said middle portion of said body of circular shape including first anti-rolling means formed by at least one radially-projecting projection in the circular external profile of said middle portion of said body , said at least one radially-projecting projection forming at least one middle non-cylindrical zone in the external profile of said middle portion of said body, the autoinjector being characterized in that said removable cap includes a radially-outer portion of circular shape and second anti-rolling means forming at least one proximal non-cylindrical zone in the circular external profile of said removable cap , and in that said distal portion of said body includes third anti-rolling means forming at least one distal non-cylindrical zone in the circular external profile of said distal portion of said body .
A method comprising: receiving, from a user device, a first request for content; retrieving, based on the first request, the content, wherein at least a portion of the content is associated with a domain name; encrypting the domain name with an encryption key; sending, to the user device, modified content in which the domain name is replaced with the encrypted domain name, wherein the encrypted domain name is configured to prevent the user device from blocking other content associated with the domain name; receiving, from the user device, a second request for the other content, wherein the second request comprises the encrypted domain name; and sending, based on the second request and to the user device, an address associated with the encrypted domain name. receiving, from a user device, a first request for content; retrieving, based on the first request, the content, wherein at least a portion of the content is associated with a domain name; encrypting the domain name with an encryption key; sending, to the user device, modified content in which the domain name is replaced with the encrypted domain name, wherein the encrypted domain name is configured to prevent the user device from blocking other content associated with the domain name; receiving, from the user device, a second request for the other content, wherein the second request comprises the encrypted domain name; and sending, based on the second request and to the user device, an address associated with the encrypted domain name.
A method of fatty acid distillation, comprising: passing a feed stream comprising fatty acids with chain lengths C6 to C20 through a first column; distributing a C6-C8 cut to a top portion of the first column; distributing a C8-C10 cut to a middle portion of the first column; withdrawing a C12+ cut from a bottom portion of the first column and passing the C12+ cut through a second column; distributing a C12-C14 cut to a top portion of the second column; withdrawing a C16+ cut from a bottom portion of the second column and passing the C16+ cut through a third column; distributing a C16-C18 cut to a top portion of the third column; and distributing a C18+ cut to a bottom portion of the third column. passing a feed stream comprising fatty acids with chain lengths C6 to C20 through a first column; distributing a C6-C8 cut to a top portion of the first column; distributing a C8-C10 cut to a middle portion of the first column; withdrawing a C12+ cut from a bottom portion of the first column and passing the C12+ cut through a second column; distributing a C12-C14 cut to a top portion of the second column; withdrawing a C16+ cut from a bottom portion of the second column and passing the C16+ cut through a third column; distributing a C16-C18 cut to a top portion of the third column; and distributing a C18+ cut to a bottom portion of the third column.