mhurhangee/ep-ind-claims huggingface dataset:
Component for holding and connecting lamellas for sun protection grates, characterized by an elongated support extending parallel to the lamellas and comprising retaining elements for a lamella, and transverse webs arranged at regular intervals on the elongated support, and connecting elements, arranged on the transverse webs, for a further similar component comprising a lamella, which is to be arranged adjacent transversely to and parallel to the longitudinal direction of the support of the component. characterized by an elongated support extending parallel to the lamellas and comprising retaining elements for a lamella, and transverse webs arranged at regular intervals on the elongated support, and connecting elements, arranged on the transverse webs, for a further similar component comprising a lamella, which is to be arranged adjacent transversely to and parallel to the longitudinal direction of the support of the component.
A fuel injector control system, comprising: a driver that is configured to supply electrical power to a fuel injector; and a controller comprising a memory and a database within the memory, the database includes a state definition library that establishes the conditions and parameters for each of a plurality of states and configured to control the driver by implementing a predetermined sequence of the plurality of predefined states for an injection cycle comprising two states injection on and injection off controlled by an activation signal "on" or "off and forty unique states, the state definition library comprising a 40x96 bit data array, the plurality of predefined states each including parameters for supplying electrical power to a fuel injector, and select one of the states to be implemented as a next one of the states in the sequence based on a characteristic of an activation signal and information indicative of the state corresponding to the characteristic of the activation signal and, characterized in that the activation signal has a first value indicating that the sequence of states should be implemented to provide power to a fuel injector; the characteristic comprises a second, different value of the activation signal; and the characteristic comprises a duration of time when the activation signal has the second, different value and, wherein the first value corresponds to a logical high; and the second value corresponds to a logical low. a driver that is configured to supply electrical power to a fuel injector; and a controller comprising a memory and a database within the memory, the database includes a state definition library that establishes the conditions and parameters for each of a plurality of states and configured to control the driver by implementing a predetermined sequence of the plurality of predefined states for an injection cycle comprising two states injection on and injection off controlled by an activation signal "on" or "off and forty unique states, the state definition library comprising a 40x96 bit data array, the plurality of predefined states each including parameters for supplying electrical power to a fuel injector, and select one of the states to be implemented as a next one of the states in the sequence based on a characteristic of an activation signal and information indicative of the state corresponding to the characteristic of the activation signal and, characterized in that the activation signal has a first value indicating that the sequence of states should be implemented to provide power to a fuel injector; the characteristic comprises a second, different value of the activation signal; and the characteristic comprises a duration of time when the activation signal has the second, different value and, wherein the first value corresponds to a logical high; and the second value corresponds to a logical low.
A method (500, 600), comprising: receiving, by a Serving Call Session Control Function, S-CSCF, of an Internet Protocol, IP, Multimedia Subsystem, IMS, a registration message associated with a user equipment, UE, from a Proxy Call Session Control Function, P-CSCF, of the IMS; retrieving, by the S-CSCF in response to receiving the registration message, a slice identifier associated with the UE from a Home Subscriber Server, HSS, wherein the slice identifier: corresponds to a network slice associated with the UE, and is used within a core network to identify the network slice; and sending, by the S-CSCF, the slice identifier associated with the UE to the P-CSCF in a registration response message; the method (500, 600) further comprising sending, by the S-CSCF, the slice identifier associated with the UE to an application server of the IMS; verifying by the application server if the slice identifier associated with the UE matches a slice identifier used in the core network for a network slice associated with voice call services; if the slice identifier associated with the UE does not match the slice identifier used in the core network for a network slice associated with voice call services, instructing by the application server the P-CSCF to initiate a re-registration procedure that causes the UE to be reassigned a different network slice that is associated with voice call services. receiving, by a Serving Call Session Control Function, S-CSCF, of an Internet Protocol, IP, Multimedia Subsystem, IMS, a registration message associated with a user equipment, UE, from a Proxy Call Session Control Function, P-CSCF, of the IMS; retrieving, by the S-CSCF in response to receiving the registration message, a slice identifier associated with the UE from a Home Subscriber Server, HSS, wherein the slice identifier: corresponds to a network slice associated with the UE, and is used within a core network to identify the network slice; and corresponds to a network slice associated with the UE, and is used within a core network to identify the network slice; and sending, by the S-CSCF, the slice identifier associated with the UE to the P-CSCF in a registration response message; the method (500, 600) further comprising sending, by the S-CSCF, the slice identifier associated with the UE to an application server of the IMS; verifying by the application server if the slice identifier associated with the UE matches a slice identifier used in the core network for a network slice associated with voice call services; if the slice identifier associated with the UE does not match the slice identifier used in the core network for a network slice associated with voice call services, instructing by the application server the P-CSCF to initiate a re-registration procedure that causes the UE to be reassigned a different network slice that is associated with voice call services.
A method for varying dimensions in two directions (X,Y) of a substrate supported by a chuck, said substrate having an edge facing bodies of an actuator assembly, each of said bodies being coupled to a lever arm, said bodies defining an area there between, said method comprising: positioning the substrate within said area defined by said bodies; applying compressive forces to said substrate with said actuator assembly; imparting an angular movement to the lever arm about a pivot axis extending in a plane parallel to a plane defined by directions (X,Y), the lever arm undergoing rotational movement causing body to undergo translational movement toward the substrate in a direction extending transversely to pivot axis. positioning the substrate within said area defined by said bodies; applying compressive forces to said substrate with said actuator assembly; imparting an angular movement to the lever arm about a pivot axis extending in a plane parallel to a plane defined by directions (X,Y), the lever arm undergoing rotational movement causing body to undergo translational movement toward the substrate in a direction extending transversely to pivot axis.
An applicator for delivering any of a plurality of predetermined radiation fields to a target in intraoperative radiotherapy, the applicator comprising: a panel; at least one first pair of first and second grippers (1504, 1505) pivotally connected to the panel, each gripper having a loop on an end configured to receive a catheter, the loop connected to an arm and the arm pivotally attached to the panel, wherein the first and second grippers are configured to rotate in opposite directions to form an open position and come to a stopping point, and wherein the loops of the grippers are configured to slide under one another while rotating into a retracted configuration; two end units (1550, 1552) disposed on opposite ends of the panel, configured for being grasped by two independent graspers for fixing the applicator in position; and a second pair of grippers (1528, 1530) pivotally connected to an opposite side of the panel relative to the first pair of grippers, each gripper having a loop on an end, the loop connected to an arm and the arm pivotally attached to the panel, wherein the first and second grippers are configured to rotate in opposite directions from an open position and come to a stopping point, and wherein the loops of the grippers are configured to slide under one another when in a retracted configuration. a panel; at least one first pair of first and second grippers (1504, 1505) pivotally connected to the panel, each gripper having a loop on an end configured to receive a catheter, the loop connected to an arm and the arm pivotally attached to the panel, wherein the first and second grippers are configured to rotate in opposite directions to form an open position and come to a stopping point, and wherein the loops of the grippers are configured to slide under one another while rotating into a retracted configuration; two end units (1550, 1552) disposed on opposite ends of the panel, configured for being grasped by two independent graspers for fixing the applicator in position; and a second pair of grippers (1528, 1530) pivotally connected to an opposite side of the panel relative to the first pair of grippers, each gripper having a loop on an end, the loop connected to an arm and the arm pivotally attached to the panel, wherein the first and second grippers are configured to rotate in opposite directions from an open position and come to a stopping point, and wherein the loops of the grippers are configured to slide under one another when in a retracted configuration.
An article, comprising: a substrate containing silicon; and an environmental barrier layer applied to said substrate, said environmental barrier layer comprising a rare earth composition, wherein said environmental barrier layer comprises an apatite comprising M I 4 M II 6 (SiO 4) 6 X 2 in which M I are seven-fold coordinated cation sites and M II are nine-fold coordinated cation sites, and X are anion sites that are distinct from the oxygen within the silica tetrahedral, wherein said apatite further comprises Mg and Fe additions, and wherein said apatite comprises Ca 2-x-y Mg x Fe y where 0>x>1 and 0>y>1. a substrate containing silicon; and an environmental barrier layer applied to said substrate, said environmental barrier layer comprising a rare earth composition, wherein said environmental barrier layer comprises an apatite comprising M I 4 M II 6 (SiO 4) 6 X 2 in which M I are seven-fold coordinated cation sites and M II are nine-fold coordinated cation sites, and X are anion sites that are distinct from the oxygen within the silica tetrahedral, wherein said apatite further comprises Mg and Fe additions, and wherein said apatite comprises Ca 2-x-y Mg x Fe y where 0>x>1 and 0>y>1.
A method for operating a wind turbine system, the method comprising: adjusting a threshold direct current bus voltage for a dynamic brake in a wind turbine power converter above a reference DC bus voltage based on at least one system condition; gating the dynamic brake on when an experienced DC bus voltage is equal to or greater than the threshold DC bus voltage; characterised in further comprising: inputting a dynamic brake condition into a controller when the dynamic brake is gated on; determining if a grid fault has occurred; reducing power generation of the wind turbine if no grid fault has occurred; blocking the power converter if a grid fault has occurred; and gating the dynamic brake off when the experienced DC bus voltage is less than the threshold DC bus voltage. adjusting a threshold direct current bus voltage for a dynamic brake in a wind turbine power converter above a reference DC bus voltage based on at least one system condition; gating the dynamic brake on when an experienced DC bus voltage is equal to or greater than the threshold DC bus voltage; characterised in further comprising: inputting a dynamic brake condition into a controller when the dynamic brake is gated on; determining if a grid fault has occurred; reducing power generation of the wind turbine if no grid fault has occurred; blocking the power converter if a grid fault has occurred; and gating the dynamic brake off when the experienced DC bus voltage is less than the threshold DC bus voltage. inputting a dynamic brake condition into a controller when the dynamic brake is gated on; determining if a grid fault has occurred; reducing power generation of the wind turbine if no grid fault has occurred; blocking the power converter if a grid fault has occurred; and gating the dynamic brake off when the experienced DC bus voltage is less than the threshold DC bus voltage.
Method for the catalytic preparation of esters by alkoxycarbonylation, characterized in that at least one alkene is reacted with formaldehyde and at least one alcohol in the presence of a ruthenium catalyst, wherein alkenes, which function as starting materials in the method according to the invention, may be mono- or polyunsaturated linear n-alkenes or branched isoalkenes, cycloalkenes and aromatic alkenes having a carbon number preferably of 2 to 40, which are optionally substituted with ester, aryl, nitro, hydroxyl, nitrile or ether groups or halogen atoms; wherein formaldehydes signifies paraformaldehyde of the general formula [CH 2 O] n, where n can be from 1 to 200, and wherein the paraformaldehyde refers to solid formaldehyde polymer which comprises a mixture of short-chain, linear poly(oxymethylene)s, and the catalyst is a complex of Ru3 12 or Ru(Me-allyl)2, optionally in combination with a halide and/or a trivalent organic phosphorus compound.
A controller for removing fluid from a cart in an assembly line grow pod, the controller comprising: one or more processors; one or more memory modules (636, 640); and machine readable instructions stored in the one or more memory modules that, when executed by the one or more processors, cause the controller to: instruct the cart to move on a track; characterized in that the machine readable instructions stored in the one or more memory modules, when executed by the one or more processors, cause the controller to determine whether fluid in the cart needs to be removed based on sensor data from a fluid sensor, said sensor data indicating a level of water in one or more cells of the cart; operate a fluid removal manifold to align one or more nozzles of the fluid removal manifold with one or more of the cells of the cart in response to determination that the fluid in the cart needs to be removed; and instruct the fluid removal manifold to remove fluid from the one or more cells of the cart through the one or more nozzles of the fluid removal manifold. one or more processors; one or more memory modules (636, 640); and machine readable instructions stored in the one or more memory modules that, when executed by the one or more processors, cause the controller to: instruct the cart to move on a track; characterized in that the machine readable instructions stored in the one or more memory modules, when executed by the one or more processors, cause the controller to determine whether fluid in the cart needs to be removed based on sensor data from a fluid sensor, said sensor data indicating a level of water in one or more cells of the cart; operate a fluid removal manifold to align one or more nozzles of the fluid removal manifold with one or more of the cells of the cart in response to determination that the fluid in the cart needs to be removed; and instruct the fluid removal manifold to remove fluid from the one or more cells of the cart through the one or more nozzles of the fluid removal manifold. instruct the cart to move on a track; characterized in that the machine readable instructions stored in the one or more memory modules, when executed by the one or more processors, cause the controller to determine whether fluid in the cart needs to be removed based on sensor data from a fluid sensor, said sensor data indicating a level of water in one or more cells of the cart; operate a fluid removal manifold to align one or more nozzles of the fluid removal manifold with one or more of the cells of the cart in response to determination that the fluid in the cart needs to be removed; and instruct the fluid removal manifold to remove fluid from the one or more cells of the cart through the one or more nozzles of the fluid removal manifold.
An oxy-fuel burner (10, 310) with monitoring, comprising: a primary first reactant passage (30, 330) terminating in a first reactant nozzle; a primary second reactant passage (20, 320) terminating in a second reactant nozzle (22, 322); wherein one of the first and second reactants is fuel and the other of the first and second reactants is oxidant; characterized in that one or more sensors including a nozzle temperature sensor (102, 372) for sensing a nozzle temperature of at least one of the reactant nozzles; and a data processor (66, 166, 266) programmed to receive data from the sensors and to determine based on at least a portion of the received data the presence or absence of an abnormal burner condition including a potential partial obstruction of at least one of the primary first reactant passage (30, 330) and the primary second reactant passage (20, 320) based on an increase or decrease in the at least one nozzle temperature; a primary first reactant passage (30, 330) terminating in a first reactant nozzle; a primary second reactant passage (20, 320) terminating in a second reactant nozzle (22, 322); wherein one of the first and second reactants is fuel and the other of the first and second reactants is oxidant; characterized in that one or more sensors including a nozzle temperature sensor (102, 372) for sensing a nozzle temperature of at least one of the reactant nozzles; and a data processor (66, 166, 266) programmed to receive data from the sensors and to determine based on at least a portion of the received data the presence or absence of an abnormal burner condition including a potential partial obstruction of at least one of the primary first reactant passage (30, 330) and the primary second reactant passage (20, 320) based on an increase or decrease in the at least one nozzle temperature;
A method comprising: measuring one or more characteristics of corrosion in equipment before implementation of a corrosion remediation action; implementing the corrosion remediation action on the equipment based on corrosion characteristics; measuring the one or more characteristics of corrosion in the equipment after implementation of the corrosion remediation action; determining a change in the one or more characteristics of the corrosion between before and after implementation of the corrosion remediation action; determining one or more historical operational characteristics as one or more of previous settings of the equipment, previous speeds at which the equipment operated, previous temperatures in which the equipment operated, previous humidity levels in which the equipment operated, or previous amounts of dust in which the equipment operated; and modifying a schedule of the corrosion remediation action for the equipment based on the change in the one or more characteristics of the corrosion, and wherein the schedule is modified based on the one or more historical operational characteristics of the equipment. measuring one or more characteristics of corrosion in equipment before implementation of a corrosion remediation action; implementing the corrosion remediation action on the equipment based on corrosion characteristics; measuring the one or more characteristics of corrosion in the equipment after implementation of the corrosion remediation action; determining a change in the one or more characteristics of the corrosion between before and after implementation of the corrosion remediation action; determining one or more historical operational characteristics as one or more of previous settings of the equipment, previous speeds at which the equipment operated, previous temperatures in which the equipment operated, previous humidity levels in which the equipment operated, or previous amounts of dust in which the equipment operated; and modifying a schedule of the corrosion remediation action for the equipment based on the change in the one or more characteristics of the corrosion, and wherein the schedule is modified based on the one or more historical operational characteristics of the equipment.
A laser treatment apparatus for ophthalmic surgery with a headrest for a patient and a contact glass, which can be placed onto the eye and through which a treatment laser beam is incident; wherein a safety mechanism (24, 25) is provided which is adapted to move the headrest and the contact glass apart when a force is directed onto the contact glass counter to the direction of incidence of the laser beam characterized in that the safety mechanism is adapted to enable the moving apart by a bed shiftable along the direction of incidence of the laser beam when a force exceeds a limit value of force (Fmin), which bed comprises by the headrest, wherein the safety mechanism is designed to shift the bed for moving apart and to fix the headrest and the contact glass to each other when force is below the limit value of force.
An organizer comprising at least one first portion, one second portion, and one third portion, wherein the first portion is connected to the second portion so as to be movable relatively to the second portion, and wherein the second portion is connected to the third portion so as to be movable relatively to the third portion, wherein at least one dedicated folding area is configured between the first portion and the second portion and/or between the second portion and the third portion, wherein the dedicated folding area has a material thickness which is less than a material thickness of the first portion and/or of the second portion and/or of the third portion, characterized in that the second portion and at least one of the first portion and the third portion each comprise at least one retainer element for reversibly accommodating blood tube system elements or blood tube components.