mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-based method of planning a catheter-based intervention, the method comprising: obtaining, by a computing device , a model of an anatomical region of interest; determining, by the computing device, an entry in the anatomical region of interest; determining, by the computing device, a target in the anatomical region of interest; determining, by the computing device, a trajectory from the entry to the target, the trajectory comprising a sequence of a plurality of trajectory segments , wherein determining a first trajectory segment of the plurality of trajectory segments comprises: obtaining a planned position for an implantable device in the anatomical region of interest; and determining the first trajectory segment as a line segment that connects a first point on a central axis of a first feature of the anatomical region of interest with a second point on a deployment axis of the positioned implantable device and that passes through a geometric center point of a second feature of the anatomical region of interest; and selecting, by the computing device, a catheter from a plurality of catheters based on the catheter being able to achieve the trajectory within at least a threshold. obtaining, by a computing device , a model of an anatomical region of interest; determining, by the computing device, an entry in the anatomical region of interest; determining, by the computing device, a target in the anatomical region of interest; determining, by the computing device, a trajectory from the entry to the target, the trajectory comprising a sequence of a plurality of trajectory segments , wherein determining a first trajectory segment of the plurality of trajectory segments comprises: obtaining a planned position for an implantable device in the anatomical region of interest; and determining the first trajectory segment as a line segment that connects a first point on a central axis of a first feature of the anatomical region of interest with a second point on a deployment axis of the positioned implantable device and that passes through a geometric center point of a second feature of the anatomical region of interest; and obtaining a planned position for an implantable device in the anatomical region of interest; and determining the first trajectory segment as a line segment that connects a first point on a central axis of a first feature of the anatomical region of interest with a second point on a deployment axis of the positioned implantable device and that passes through a geometric center point of a second feature of the anatomical region of interest; and selecting, by the computing device, a catheter from a plurality of catheters based on the catheter being able to achieve the trajectory within at least a threshold.
Spacer for retaining a reinforcement bar at a distance from a formwork board , the spacer comprising: • three support legs , one of said legs having a through opening in its longitudinal direction; • a body emerging on said support legs , said body having a vertical opening centered on said body and a second opening positioned concentric to said through opening in said leg ; • a notch in the body, substantially parallel to the formwork board when the spacer is in its installed position, formed on one side of the body and extending to all said openings , which notch is configured to receive the reinforcement bar ; • a conventional fixing element that can be inserted into said second opening and into said through opening . • three support legs , one of said legs having a through opening in its longitudinal direction; • a body emerging on said support legs , said body having a vertical opening centered on said body and a second opening positioned concentric to said through opening in said leg ; • a notch in the body, substantially parallel to the formwork board when the spacer is in its installed position, formed on one side of the body and extending to all said openings , which notch is configured to receive the reinforcement bar ; • a conventional fixing element that can be inserted into said second opening and into said through opening .
Inclined lift comprising at least one guide rail for a rope-drawn transport slide which is guided on said guide rail and mounted so as to be repositionable on the inclined lift and on which a container for repositioning the container from an initial position (A) to a loading position (B) is placeable; a first rope and a second rope which, from a winch by way of at least one first rope pulley for the first rope and one second deflection installation for the second rope , lead to the transport slide , and for repositioning the transport slide are disposed in a fixed manner in terms of repositioning on the transport slide so as to be deflectable by way of a first transport slide pulley for the first rope and a second transport slide pulley for the second rope ; a compensation beam which is movable about a fulcrum is provided, wherein the first rope by way of a first deflection installation and the second rope by way of a second pulley are guidable from the transport slide to the compensation beam and fastenable to the compensation beam , characterized in that the compensation beam is mounted so as to be movable in a linear guide unit.
A sheet manufacturing apparatus comprising: a processing unit that processes fibers into a web shape; a roller unit (84a, 84b; 85) that pinches and transports processed matter processed into the web shape by the processing unit ; and a control unit that controls at least any of a pressing state and a transport state in the roller unit (84a, 84b; 85), characterized in that the control unit causes the processed matter to pass a nip position of the roller unit (84a, 84b; 85) by controlling at least any of a transport speed of the roller unit (84a, 84b; 85), a nip pressure of the roller unit ((84a, 84b; 85), and a nip width of the roller unit ((84a, 84b; 85) depending on a position of a leading edge of the processed matter with respect to the nip position at which the roller unit (84a, 84b; 85) pinches the processed matter. a processing unit that processes fibers into a web shape; a roller unit (84a, 84b; 85) that pinches and transports processed matter processed into the web shape by the processing unit ; and a control unit that controls at least any of a pressing state and a transport state in the roller unit (84a, 84b; 85), characterized in that the control unit causes the processed matter to pass a nip position of the roller unit (84a, 84b; 85) by controlling at least any of a transport speed of the roller unit (84a, 84b; 85), a nip pressure of the roller unit ((84a, 84b; 85), and a nip width of the roller unit ((84a, 84b; 85) depending on a position of a leading edge of the processed matter with respect to the nip position at which the roller unit (84a, 84b; 85) pinches the processed matter.
A method of operating a hearing aid system comprising the steps of: - providing a first and a second input signal, wherein the first and second input signal represent the output from a first and a second microphone respectively and wherein said microphones are comprised in the hearing aid system; - determining at least one of an unbiased mean phase and a resultant length from samples of inter-microphone phase differences between said first and second input signal by: - determining a complex value Re iθ̂ , given by: Re i θ ^ = 1 n ∑ i=1 n e iθ i wherein n represents the number of inter-microphone phase differences used for the averaging, wherein e iθ i represents samples of inter-microphone phase differences, wherein R represents the resultant length and wherein θ̂ represents the unbiased mean phase; and - using at least one of the unbiased mean phase and the resultant length to classify a current sound environment of the hearing aid system. - providing a first and a second input signal, wherein the first and second input signal represent the output from a first and a second microphone respectively and wherein said microphones are comprised in the hearing aid system; - determining at least one of an unbiased mean phase and a resultant length from samples of inter-microphone phase differences between said first and second input signal by: - determining a complex value Re iθ̂ , given by: Re i θ ^ = 1 n ∑ i=1 n e iθ i wherein n represents the number of inter-microphone phase differences used for the averaging, wherein e iθ i represents samples of inter-microphone phase differences, wherein R represents the resultant length and wherein θ̂ represents the unbiased mean phase; and - using at least one of the unbiased mean phase and the resultant length to classify a current sound environment of the hearing aid system. - determining a complex value Re iθ̂ , given by: Re i θ ^ = 1 n ∑ i=1 n e iθ i wherein n represents the number of inter-microphone phase differences used for the averaging, wherein e iθ i represents samples of inter-microphone phase differences, wherein R represents the resultant length and wherein θ̂ represents the unbiased mean phase; and - using at least one of the unbiased mean phase and the resultant length to classify a current sound environment of the hearing aid system.
A computer comprising memory and at least one processor with an operating system executing on the at least one processor, the operating system providing: a pool of worker threads ; a plurality of queues , each queue having a different priority, for storing items to be assigned to the worker threads ; a concurrency controller that assigns items from the plurality of queues to a limited number of worker threads , characterized in that : when a worker thread is assigned, it is given the priority of the item to which it is assigned, wherein in response to receiving a request and its priority from an application, the concurrency controller is configured to: add an item corresponding to the request to a queue having the priority of the request; determine a concurrency count for the priority of the item, wherein the concurrency count is a number of active worker threads at the priority of the queue into which the item was added and higher priorities; and if a concurrency limit is not exceeded by the concurrency count for the priority of the item, select the item for immediate assignment to a worker thread and increment the concurrency count for the priority of the item. a pool of worker threads ; a plurality of queues , each queue having a different priority, for storing items to be assigned to the worker threads ; a concurrency controller that assigns items from the plurality of queues to a limited number of worker threads , characterized in that : when a worker thread is assigned, it is given the priority of the item to which it is assigned, wherein in response to receiving a request and its priority from an application, the concurrency controller is configured to: add an item corresponding to the request to a queue having the priority of the request; determine a concurrency count for the priority of the item, wherein the concurrency count is a number of active worker threads at the priority of the queue into which the item was added and higher priorities; and if a concurrency limit is not exceeded by the concurrency count for the priority of the item, select the item for immediate assignment to a worker thread and increment the concurrency count for the priority of the item. add an item corresponding to the request to a queue having the priority of the request; determine a concurrency count for the priority of the item, wherein the concurrency count is a number of active worker threads at the priority of the queue into which the item was added and higher priorities; and if a concurrency limit is not exceeded by the concurrency count for the priority of the item, select the item for immediate assignment to a worker thread and increment the concurrency count for the priority of the item.
A system for curing at least one leakage site in a pipeline , the system comprising: a) at least one non-abrasive, fully flushable gel pig comprising: i. a hygroscopic component in a concentration of 1-10 weight percent; ii. a surfactant in a concentration of 0-8 weight percent; iii. a carrier fluid in a concentration of 70-95 weight percent; iv. a base in a concentration of 0-20 weight percent and v. a particulate in a concentration of 0-2 weight percent; wherein the components i. to v. amount to a total of 100 weight percent; b) at least one sealant composition ; wherein said at least one gel pig and said at least one sealant composition form a pig train, adapted to move along said pipeline to a region of said at least one leakage and to seal said at least one leakage . a) at least one non-abrasive, fully flushable gel pig comprising: i. a hygroscopic component in a concentration of 1-10 weight percent; ii. a surfactant in a concentration of 0-8 weight percent; iii. a carrier fluid in a concentration of 70-95 weight percent; iv. a base in a concentration of 0-20 weight percent and v. a particulate in a concentration of 0-2 weight percent; wherein the components i. to v. amount to a total of 100 weight percent; i. a hygroscopic component in a concentration of 1-10 weight percent; ii. a surfactant in a concentration of 0-8 weight percent; iii. a carrier fluid in a concentration of 70-95 weight percent; iv. a base in a concentration of 0-20 weight percent and v. a particulate in a concentration of 0-2 weight percent; b) at least one sealant composition ; wherein said at least one gel pig and said at least one sealant composition form a pig train, adapted to move along said pipeline to a region of said at least one leakage and to seal said at least one leakage .
A method comprising: receiving, by an area border router , ABR, connected to one or more metropolitan area networks and a core network , a packet including a segment routing label stack for a segment routing path , wherein the segment routing label stack includes at least a label of the ABR , a context label associated with a routing instance of the ABR , and a subsequent label identifying a device in the core network , wherein the routing instance of the ABR comprises a metropolitan area network routing table, metro routing table, , for a first metropolitan area network of the one or more metropolitan area networks ; determining, from a lookup of the context label in the metro routing table , a table next hop to a core routing table for the core network , wherein the metro routing table comprises at least one context label route that maps the context label to the core routing table and wherein the core routing table comprises at least one context label route that maps the context label to the metro routing table ; in response to determining the table next hop, determining, from a lookup of the subsequent label in the core routing table , a next hop in the segment routing path to the device in the core network ; and sending, by the ABR , the packet toward the device in the core network . receiving, by an area border router , ABR, connected to one or more metropolitan area networks and a core network , a packet including a segment routing label stack for a segment routing path , wherein the segment routing label stack includes at least a label of the ABR , a context label associated with a routing instance of the ABR , and a subsequent label identifying a device in the core network , wherein the routing instance of the ABR comprises a metropolitan area network routing table, metro routing table, , for a first metropolitan area network of the one or more metropolitan area networks ; wherein the segment routing label stack includes at least a label of the ABR , a context label associated with a routing instance of the ABR , and a subsequent label identifying a device in the core network , wherein the routing instance of the ABR comprises a metropolitan area network routing table, metro routing table, , for a first metropolitan area network of the one or more metropolitan area networks ; determining, from a lookup of the context label in the metro routing table , a table next hop to a core routing table for the core network , wherein the metro routing table comprises at least one context label route that maps the context label to the core routing table and wherein the core routing table comprises at least one context label route that maps the context label to the metro routing table ; in response to determining the table next hop, determining, from a lookup of the subsequent label in the core routing table , a next hop in the segment routing path to the device in the core network ; and sending, by the ABR , the packet toward the device in the core network .
Device for preparing at least a portion of an instrument carrier , comprising a casting mould, which comprises at least two cores for forming at least two mounting brackets and means for forming continuous welding means , wherein the at least two cores each have an opening side, so that after a casting process the at least two cores can be removed from the casting mould by moving towards one another, whereby the at least two cores each define a chamber in the at least two mounting brackets, which each have an opening so that the openings face one another.
Method for operating a signal coupling apparatus , wherein the signal coupling apparatus comprises at least one signal branch section (SZA) which is or can be connected to a terminal-side interface of the signal coupling apparatus using signalling, wherein at least one signal property of a signal present on the at least one signal branch section (SZA) is determined, wherein a signal type is determined on the basis of the at least one signal property, wherein a time duplexing signal or a frequency duplexing signal is determined as the signal type, wherein signal type-specific control of a mode of at least one signal processing apparatus is effected, wherein a future signal profile of the signal that is present is estimated, wherein the signal type-specific control of the at least one signal processing apparatus is effected on the basis of the estimated time profile, wherein a starting time of at least one future transmission time segment and/or an ending time of the at least one future transmission time segment is/are determined, wherein the mode of the at least one signal processing apparatus is controlled on the basis of the starting time and/or the ending time, characterised in that the signal processing apparatus is activated at a time before the starting time and deactivated at a time after the ending time. wherein a future signal profile of the signal that is present is estimated, wherein the signal type-specific control of the at least one signal processing apparatus is effected on the basis of the estimated time profile, wherein a starting time of at least one future transmission time segment and/or an ending time of the at least one future transmission time segment is/are determined, wherein the mode of the at least one signal processing apparatus is controlled on the basis of the starting time and/or the ending time, characterised in that the signal processing apparatus is activated at a time before the starting time and deactivated at a time after the ending time.
A method of controlling directional communication equipment , implemented by a communication device , the method being characterized by : determining a distance for which an antenna lobe extends from the communication device for directionally sensing spectral conditions; jointly selecting an antenna beamwidth and sensing sensitivity with which to directionally sense the spectral conditions based on the distance . determining a distance for which an antenna lobe extends from the communication device for directionally sensing spectral conditions; jointly selecting an antenna beamwidth and sensing sensitivity with which to directionally sense the spectral conditions based on the distance .
Method for tracking a maximum power point of a photovoltaic module , the method comprising a step (E1) of calculating the time derivative of an electrical quantity (V1) delivered by the photovoltaic module , the method being characterized in that it also comprises a step (E2-E8) of regulating an adjustment parameter (α) of the operating point of the photovoltaic module, in which step the derivative ( dV 1/ dt ) of said electrical quantity is slaved to a predefined reference threshold (REF) that corresponds to an operating point equal or close to the maximum power point (Pt mpp ) of the photovoltaic module .
A light module of a vehicle comprising an optical element and at least one light source , the rays emitted from which pass through a transparent optical surface of the optical element and emerge in the form of a light beam, the transparent optical surface extending mainly along a transverse axis (B) between a first transverse end and a second transverse end , characterized in that the optical element comprises at least one means for attachment to the light module at each of the transverse ends of the transparent optical surface , the attachment means being an attachment lug extending substantially perpendicularly to the transparent optical surface along a longitudinal axis (A), the light module comprising at least one support for the at least one light source and for the optical element , the support having a housing for each attachment means of the optical element , characterized in that the light module further comprises a reflector attached to the support to deflect the light rays emitted by the light source toward the optical element, said reflector being positioned to cover attachment means of the optical element , each of which is positioned in a housing of the support , and in that the reflector comprises at least one elastically deformable tab in contact with one of the attachment means of the optical element , so as to immobilize said attachment means in the corresponding housing along the vertical axis (C). the attachment means being an attachment lug extending substantially perpendicularly to the transparent optical surface along a longitudinal axis (A), the light module comprising at least one support for the at least one light source and for the optical element , the support having a housing for each attachment means of the optical element , characterized in that the light module further comprises a reflector attached to the support to deflect the light rays emitted by the light source toward the optical element, said reflector being positioned to cover attachment means of the optical element , each of which is positioned in a housing of the support , and in that the reflector comprises at least one elastically deformable tab in contact with one of the attachment means of the optical element , so as to immobilize said attachment means in the corresponding housing along the vertical axis (C).