mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a light valve, wherein the light valve is composed of a film 1 in which a light polarizing suspension 3, containing: 5 to 20 wt% of light polarization variable particles 4 showing light polarization characteristics and having a size of 0.2 to 0.5 μm; 2 to 10 wt% of a dispersion aid; and 80 to 93 wt% of a suspension agent which is a plasticizer, is dispersed in the form of fine droplets 5 in a polymer resin 2 having excellent adhesive strength to a substrate 9, wherein a weight ratio of the droplets 5 and the polymer resin 2 is 0.5 to 1:1.
A method for the production of medium- to long-chain hydrocarbons, in particular alkanes, from gaseous alkanes or alkane hydrates, wherein (a) in a first partial method, a gaseous alkane is converted into medium- to long-chain hydrocarbons (synthesis product) via a one-step or multi-step reaction with release of molecular hydrogen; and (b) in a parallel second partial method, the molecular hydrogen released in the first partial method is used to generate energy, wherein furthermore the energy released in the second partial method is used for activating and/or operating the reaction of the first partial method, and wherein furthermore in the second partial method the molecular hydrogen in a fuel cell is used to generate electrical power. (a) in a first partial method, a gaseous alkane is converted into medium- to long-chain hydrocarbons (synthesis product) via a one-step or multi-step reaction with release of molecular hydrogen; and (b) in a parallel second partial method, the molecular hydrogen released in the first partial method is used to generate energy,
A method, comprising: receiving , by a user equipment, signaling comprising at least one of a plurality of reference signal received power threshold levels; determining , by the user equipment, a power class parameter associated with the user equipment; adjusting the at least one of the plurality of reference signal received power threshold levels by said power class parameter; and selecting , based on at least the adjusted at least one of the plurality of reference signal received power threshold levels, a resource set to perform a network access procedure with a communication network. receiving , by a user equipment, signaling comprising at least one of a plurality of reference signal received power threshold levels; determining , by the user equipment, a power class parameter associated with the user equipment; adjusting the at least one of the plurality of reference signal received power threshold levels by said power class parameter; and selecting , based on at least the adjusted at least one of the plurality of reference signal received power threshold levels, a resource set to perform a network access procedure with a communication network.
A method for controlling a service unit performing various service activities at one workstation on a textile machine having several workstations, in which case the service activities (S1, S2, S3) and movement orders (B1) to be carried out by the service unit are prioritised by a controller unit, characterised in that avoidance manoeuvres (B1) and parking orders are carried out with the highest priority and manually set service activities (MS1, MS2) and movement orders are carried out with high priority.
A method for self-updating a distributed system of computer nodes (104 1 -104 N ), the method being performed at least in part on at least one processor, the method comprising: determining node membership of a plurality of computer nodes of said distributed system that provides services; and via at least one component of the distributed system, performing an updating run that applies one or more updates to each of the plurality of computer nodes in the membership while maintaining the services provided by the distributed system, including for each computer node to be updated, moving any workloads from that computer node to one or more other computer nodes of said distributed system, and reinstating at least one workload on that computer node after completing the updating of that computer node, wherein an orchestrator runs on one of the computer nodes to be updated, wherein the orchestrator instantiates and coordinates the updating run, and wherein a self-updating-related workload including the orchestrator is moved to a new computer node among the computer nodes, during the course of the updating run, before launching the orchestrator on the new computer node to update the one computer node on which the orchestrator was running before being moved to the new computer node. determining node membership of a plurality of computer nodes of said distributed system that provides services; and via at least one component of the distributed system, performing an updating run that applies one or more updates to each of the plurality of computer nodes in the membership while maintaining the services provided by the distributed system, including for each computer node to be updated, moving any workloads from that computer node to one or more other computer nodes of said distributed system, and reinstating at least one workload on that computer node after completing the updating of that computer node, wherein an orchestrator runs on one of the computer nodes to be updated, wherein the orchestrator instantiates and coordinates the updating run, and wherein a self-updating-related workload including the orchestrator is moved to a new computer node among the computer nodes, during the course of the updating run, before launching the orchestrator on the new computer node to update the one computer node on which the orchestrator was running before being moved to the new computer node. for each computer node to be updated, moving any workloads from that computer node to one or more other computer nodes of said distributed system, and reinstating at least one workload on that computer node after completing the updating of that computer node, wherein an orchestrator runs on one of the computer nodes to be updated, wherein the orchestrator instantiates and coordinates the updating run, and wherein a self-updating-related workload including the orchestrator is moved to a new computer node among the computer nodes, during the course of the updating run, before launching the orchestrator on the new computer node to update the one computer node on which the orchestrator was running before being moved to the new computer node.
A method for registering input images to reference objects to generate output parameters, the method comprising: obtaining an input image and a reference object, wherein the reference object comprises a reference image or a template corresponding to a model of content in the reference image; performing a registration of the input image by estimating transformation parameters of a geometric transform that maps pixels from the input image to the reference object; warping the reference object or the input image according to the estimated transformation parameters and measuring a misalignment error between the input image and the reference object using a function approximation technique trained based on comparing an estimated error to an error metric; iteratively updating the transformation parameters to minimize the misalignment error; and generating a set of output parameters from the updated transformation parameters, comprising a set of one or more camera parameters or a set of geometric transformation parameters. obtaining an input image and a reference object, wherein the reference object comprises a reference image or a template corresponding to a model of content in the reference image; performing a registration of the input image by estimating transformation parameters of a geometric transform that maps pixels from the input image to the reference object; warping the reference object or the input image according to the estimated transformation parameters and measuring a misalignment error between the input image and the reference object using a function approximation technique trained based on comparing an estimated error to an error metric; iteratively updating the transformation parameters to minimize the misalignment error; and generating a set of output parameters from the updated transformation parameters, comprising a set of one or more camera parameters or a set of geometric transformation parameters.
An indicator device comprising: a base ; a first indicator member , mounted on the base , displaceable between a first position indicative of a first condition or state wherein the first indicator member reveals a first status indicating area and a second position indicative of a second condition or state wherein the first indicator member reveals a second status indicating area , wherein the first and second status indicating areas are visual; a second indicator member mounted on the base , displaceable into the path of the first indicator member when the first indicator member is in the first position to inhibit displacement of the first indicator member to the second position; wherein the first and second indicator members are reversibly displaceable between their first and second positions; and wherein the second position of the second indicator member is indicative of a third condition or state. a base ; a first indicator member , mounted on the base , displaceable between a first position indicative of a first condition or state wherein the first indicator member reveals a first status indicating area and a second position indicative of a second condition or state wherein the first indicator member reveals a second status indicating area , wherein the first and second status indicating areas are visual; a second indicator member mounted on the base , displaceable into the path of the first indicator member when the first indicator member is in the first position to inhibit displacement of the first indicator member to the second position; wherein the first and second indicator members are reversibly displaceable between their first and second positions; and wherein the second position of the second indicator member is indicative of a third condition or state.
A data bus subscriber connected to a local bus , wherein the local bus is a ring bus, the data bus subscriber comprising: a status signal input for receiving a first status signal value from a data bus subscriber directly downstream in the ring bus or from a termination unit directly downstream; a status signal output for providing a second status signal value to a data bus subscriber directly upstream in the ring bus or to a local bus master directly upstream; wherein the data bus subscriber is adapted to provide the second status signal value based on a logical linkage of a communication readiness of the data bus subscriber and the first status signal value. a status signal input for receiving a first status signal value from a data bus subscriber directly downstream in the ring bus or from a termination unit directly downstream; a status signal output for providing a second status signal value to a data bus subscriber directly upstream in the ring bus or to a local bus master directly upstream; wherein the data bus subscriber is adapted to provide the second status signal value based on a logical linkage of a communication readiness of the data bus subscriber and the first status signal value.
A surgical instrument , comprising: a handle including: a handle frame ; a microcontroller having at least one program and memory; and a handle interface supported by the handle frame and in electrical communication with the microcontroller; and a loading unit comprising a staple cartridge and an anvil , the loading unit including: a body configured for operative coupling to the handle frame of the handle, and defining a longitudinal axis and having proximal and distal ends; and an end effector coupled to the distal end of the body, the end effector configured to perform a surgical task; and a bracket mounted to the loading unit, the bracket including a microchip having at least one of authentication data and identification data relating to the loading unit, the bracket including a bracket interface in communication with the microchip, the bracket interface configured for electrical coupling with the handle interface of the handle; characterised in that the bracket extends between the staple cartridge and the anvil and is configured to engage and prevent movement of at least one drive component of the loading unit. a handle including: a handle frame ; a microcontroller having at least one program and memory; and a handle interface supported by the handle frame and in electrical communication with the microcontroller; and a handle frame ; a microcontroller having at least one program and memory; and a handle interface supported by the handle frame and in electrical communication with the microcontroller; and a loading unit comprising a staple cartridge and an anvil , the loading unit including: a body configured for operative coupling to the handle frame of the handle, and defining a longitudinal axis and having proximal and distal ends; and an end effector coupled to the distal end of the body, the end effector configured to perform a surgical task; and a body configured for operative coupling to the handle frame of the handle, and defining a longitudinal axis and having proximal and distal ends; and an end effector coupled to the distal end of the body, the end effector configured to perform a surgical task; and a bracket mounted to the loading unit, the bracket including a microchip having at least one of authentication data and identification data relating to the loading unit, the bracket including a bracket interface in communication with the microchip, the bracket interface configured for electrical coupling with the handle interface of the handle; characterised in that the bracket extends between the staple cartridge and the anvil and is configured to engage and prevent movement of at least one drive component of the loading unit.
A method comprising: obtaining , by a system comprising a processor, a resource block schedule associated with a first plurality of wireless signal paths; identifying , by the system, unused resource blocks for the first plurality of wireless signal paths based on the resource block schedule; measuring , by the system, signal energy levels during the one or more unused resource blocks; determining , by the system, an average thermal noise level from the measured signal energy levels; determining , by the system, an adaptive inter-cell interference threshold based on the average thermal noise level; detecting and storing , by the system, interference signals for a second plurality of wireless signal paths based on the adaptive inter-cell interference threshold; measuring , by the system, signal levels and noise levels of a third plurality of wireless signal paths; determining , by the system, Signal to Interference plus Noise Ratio, SINR, measurements for the third plurality of wireless signal paths based on the measured signal levels and noise levels of the third plurality of wireless signal paths and the levels of interference of the stored interference signals; identifying , by the system, a SINR measurement from the SINR measurements that is below a SINR threshold; and initiating , by the system, a corrective action to improve the SINR measurement of a wireless signal path of the third plurality of wireless signal paths corresponding to the identified SINR measurement. obtaining , by a system comprising a processor, a resource block schedule associated with a first plurality of wireless signal paths; identifying , by the system, unused resource blocks for the first plurality of wireless signal paths based on the resource block schedule; measuring , by the system, signal energy levels during the one or more unused resource blocks; determining , by the system, an average thermal noise level from the measured signal energy levels; determining , by the system, an adaptive inter-cell interference threshold based on the average thermal noise level; detecting and storing , by the system, interference signals for a second plurality of wireless signal paths based on the adaptive inter-cell interference threshold; measuring , by the system, signal levels and noise levels of a third plurality of wireless signal paths; determining , by the system, Signal to Interference plus Noise Ratio, SINR, measurements for the third plurality of wireless signal paths based on the measured signal levels and noise levels of the third plurality of wireless signal paths and the levels of interference of the stored interference signals; identifying , by the system, a SINR measurement from the SINR measurements that is below a SINR threshold; and initiating , by the system, a corrective action to improve the SINR measurement of a wireless signal path of the third plurality of wireless signal paths corresponding to the identified SINR measurement.
A medicament delivery device for delivery of medicament through a cannula from a cartridge comprising a first container for storage of a first substance, a second container for storage of a second substance and being arranged coaxially with respect to the first container , and valve means for closing a distal end of the second chamber , the medicament delivery device comprising: a housing for receiving the cartridge ; a mixing element for causing displacement of the second substance into the first container through the valve means in a mixing stroke; a release element for holding the mixing element in an initial position and operable to release the mixing element to initiate the mixing stroke; and a needle shroud for shrouding the cannula within the interior of the housing , characterised in that removal of the needle shroud from the interior of the housing causes operation of the release element . a housing for receiving the cartridge ; a mixing element for causing displacement of the second substance into the first container through the valve means in a mixing stroke; a release element for holding the mixing element in an initial position and operable to release the mixing element to initiate the mixing stroke; and a needle shroud for shrouding the cannula within the interior of the housing , characterised in that removal of the needle shroud from the interior of the housing causes operation of the release element .
An electronic device holder of the type suitable to be fastened to the back of a seat seatback or to a holding surface in front of a user, which has a plate-like shape adhering to said holding surface, and which includes in its thickness an extendable arm projecting from the upper edge thereof, through an outlet hole, which can be extracted vertically and having: • a first holding element capable of rotating from a vertical position adhered to the extendable arm or to the holder to a position rotated upwards; and • a second holding element capable of rotating from a vertical position adhered to the extendable arm or to the holder to a position wherein it acts as resting bracket; said first and second holding elements being arranged to receive respective edges of an electronic device (S, T) and being provided with a respective first and second locking tooth , characterized in that the second holding element is hinged to the lower end of a pivoting arm , in turn hinged in proximity of an outlet hole of said extendable arm from the holder , which is capable of rotating from a position adhered to the holder to a tilted position. • a first holding element capable of rotating from a vertical position adhered to the extendable arm or to the holder to a position rotated upwards; and • a second holding element capable of rotating from a vertical position adhered to the extendable arm or to the holder to a position wherein it acts as resting bracket;
A method of operating a wireless communication device, the method comprising: - transmitting, on a wireless link between the wireless communication device and a further wireless communication device , at least one first signal using a first polarization , - transmitting, on the wireless link, at least one second signal using a second polarization , - transmitting, on the wireless link, at least one third signal using a third polarization , and - based on the at least one first signal , the at least one second signal , and the at least one third signal : sounding channels of the wireless link associated with the at least one first signal , the at least one second signal , and the at least one third signal , wherein the first polarization , the second polarization , and the third polarization are different from each other, wherein a corresponding uplink resource is assigned to each one of the at least one first signal , the at least one second signal , and the at least one third signal , wherein sounding the channels of the wireless link comprises: - receiving, from the further wireless communication device , a received signal power associated to at least one of the at least one first, second and third signals in the assigned corresponding uplink resource. - transmitting, on a wireless link between the wireless communication device and a further wireless communication device , at least one first signal using a first polarization , - transmitting, on the wireless link, at least one second signal using a second polarization , - transmitting, on the wireless link, at least one third signal using a third polarization , and - based on the at least one first signal , the at least one second signal , and the at least one third signal : sounding channels of the wireless link associated with the at least one first signal , the at least one second signal , and the at least one third signal , wherein the first polarization , the second polarization , and the third polarization are different from each other, - receiving, from the further wireless communication device , a received signal power associated to at least one of the at least one first, second and third signals in the assigned corresponding uplink resource.
A method, comprising: estimating a coking rate for a process based on a coking model, wherein the coking model comprises a pyrolytic coking term and a catalytic coking term; performing at least a portion of the process; receiving a parameter for the process; and adjusting an operation of the process based on the parameter, wherein the parameter comprises at least one member selected from the group consisting of a tube metal temperature and a pressure drop associated with a tube, and wherein the catalytic coking term is based on a surface concentration of catalytically active sites. estimating a coking rate for a process based on a coking model, wherein the coking model comprises a pyrolytic coking term and a catalytic coking term; performing at least a portion of the process; receiving a parameter for the process; and adjusting an operation of the process based on the parameter, wherein the parameter comprises at least one member selected from the group consisting of a tube metal temperature and a pressure drop associated with a tube, and wherein the catalytic coking term is based on a surface concentration of catalytically active sites.