mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for moving a moveable furniture part, in particular a drawer, comprising - at least one ejection device for ejection of the furniture part from the closed position into a first open position, wherein the at least one ejection device includes at least one force storage means, and - at least one loading device for loading the at least one force storage means by a closing movement of the furniture part, wherein loading of the at least one force storage means is effected over a loading distance (Δx) with an end point (x f), and wherein the at least one force storage means is completely loaded at the end point (x f) of the loading distance (Δx), characterised in that the loading distance (Δx) has a variable starting point (x i), wherein the starting point (x i) of the loading distance (Δx) is established in a closing movement of the furniture part from a second open position which is greater than the first open position by the position of the furniture part at the beginning of the closing movement. - at least one ejection device for ejection of the furniture part from the closed position into a first open position, wherein the at least one ejection device includes at least one force storage means, and - at least one loading device for loading the at least one force storage means by a closing movement of the furniture part, wherein loading of the at least one force storage means is effected over a loading distance (Δx) with an end point (x f), and wherein the at least one force storage means is completely loaded at the end point (x f) of the loading distance (Δx),
A replacement heart valve configured for implantation within an annulus of a native heart valve, comprising: an expandable anchor member including an upstream portion forming an upstream chamber, a downstream portion forming a downstream chamber, and a tubular middle portion disposed between the upstream portion and the downstream portion; wherein the tubular middle portion forms a longitudinally-oriented lumen extending between the upstream portion and the downstream portion, wherein the downstream chamber extends radially outward from the tubular middle portion; and a disc-shaped diaphragm disposed within the downstream chamber of the anchor member, wherein the tubular middle portion is positionable within the annulus of the native heart valve with the upstream chamber disposed upstream of the annulus and the downstream chamber disposed downstream of the annulus characterized in that the disc-shaped diaphragm is free to move axially within the downstream chamber of the anchor member in response to fluid flow through the tubular middle portion, wherein the disc-shaped diaphragm moves away from the tubular middle portion, thereby permitting fluid flow through the tubular middle portion, in response to a positive fluid pressure differential between the tubular middle portion and the downstream portion, wherein the disc-shaped diaphragm moves against the tubular middle portion, thereby preventing fluid flow through the tubular middle portion, in response to a negative fluid pressure differential between the tubular middle portion and the downstream portion. an expandable anchor member including an upstream portion forming an upstream chamber, a downstream portion forming a downstream chamber, and a tubular middle portion disposed between the upstream portion and the downstream portion; wherein the tubular middle portion forms a longitudinally-oriented lumen extending between the upstream portion and the downstream portion, wherein the downstream chamber extends radially outward from the tubular middle portion; and a disc-shaped diaphragm disposed within the downstream chamber of the anchor member, wherein the tubular middle portion is positionable within the annulus of the native heart valve with the upstream chamber disposed upstream of the annulus and the downstream chamber disposed downstream of the annulus characterized in that the disc-shaped diaphragm is free to move axially within the downstream chamber of the anchor member in response to fluid flow through the tubular middle portion, wherein the disc-shaped diaphragm moves away from the tubular middle portion, thereby permitting fluid flow through the tubular middle portion, in response to a positive fluid pressure differential between the tubular middle portion and the downstream portion, wherein the disc-shaped diaphragm moves against the tubular middle portion, thereby preventing fluid flow through the tubular middle portion, in response to a negative fluid pressure differential between the tubular middle portion and the downstream portion.
A method for determining a setpoint of a torque or a force on the steering wheel for a power steering system of a motor vehicle, the steering is a rack-and-pinion steering and the torque or force setpoint being determined depending on various parameters and/or information, said setpoint of the torque or force on the steering wheel being determined depending on the lateral acceleration of the vehicle, characterized in that the lateral acceleration of the vehicle is itself determined mainly from an estimate of the force exerted on the rack of the steering system, this estimate being carried out from internal data of the electrical power steering system, such as: assistance torque of the electric motor or electrical current flowing through this motor, rotation speed of this motor, torque exerted by the driver, while a model as a parameter table is used to switch from the estimated force to the lateral acceleration.
A method for operating a network, where a functional command is generated responsive to a user action, which is configured to execute an assigned function in a network station, wherein user data is made available for the user activating the functional command, a user identification, which is derived from the user data, is assigned to the functional command, the functional command and the user identification being transferred over the network to a network station, characterized in that the functional command includes a control command for controlling a preprogrammed process resulting from an execution of a previous functional command, wherein an identifier corresponding to a previous user identification was assigned to the preprogrammed process upon execution of the previous functional command and, upon executing the functional command, the user identification is compared with the identifier, which is assigned to the preprogrammed process, wherein it is established that the functional command is approved in connection with the assigned user identification if the user identification matches the identifier.
A band comprising: a tubular body having an inner surface and an outer surface and defining a central passage, wherein the tubular body is configured to be worn on a user's body such that a portion of the user's body is received in the central passage, the tubular body comprising a first layer and a second layer of elastic fabric material; and a housing formed of a polymer material and formed separately from the tubular body, wherein the housing is connected to the tubular body such that a portion of the housing is positioned between the first and second layers, wherein the rigidity of the housing is greater than the rigidity of the fabric material of the tubular body, wherein the housing defines a cavity and an access opening providing access to the cavity, wherein the housing is configured to removably receive an electronic module in the cavity through the access opening, and the housing further comprises a slot in communication with the cavity, the slot configured to permit passage of moisture away from the housing. a tubular body having an inner surface and an outer surface and defining a central passage, wherein the tubular body is configured to be worn on a user's body such that a portion of the user's body is received in the central passage, the tubular body comprising a first layer and a second layer of elastic fabric material; and a housing formed of a polymer material and formed separately from the tubular body, wherein the housing is connected to the tubular body such that a portion of the housing is positioned between the first and second layers, wherein the rigidity of the housing is greater than the rigidity of the fabric material of the tubular body, wherein the housing defines a cavity and an access opening providing access to the cavity, wherein the housing is configured to removably receive an electronic module in the cavity through the access opening, and the housing further comprises a slot in communication with the cavity, the slot configured to permit passage of moisture away from the housing.
Thermochromic pigment composition comprising: at least one electron-donating organic dye compound, at least one electron-accepting compound, and at least one compound of formula corresponding to the following formula: where: - X represents O or a single bond, - Z represents COO or OCO, - R 1 represents OC 1-20 alkyl or (CH 2) m CH 3, - R 2 represents OCO(CH 2) n CH 3 or H, - y = 0-3, - m = 12-18, - n = 12-18, - p = 8-18, and provided that when X represents O, y is different from 0. at least one electron-donating organic dye compound, at least one electron-accepting compound, and at least one compound of formula corresponding to the following formula: where: - X represents O or a single bond, - Z represents COO or OCO, - R 1 represents OC 1-20 alkyl or (CH 2) m CH 3, - R 2 represents OCO(CH 2) n CH 3 or H, - y = 0-3, - m = 12-18, - n = 12-18, - p = 8-18, and provided that when X represents O, y is different from 0. - X represents O or a single bond, - Z represents COO or OCO, - R 1 represents OC 1-20 alkyl or (CH 2) m CH 3, - R 2 represents OCO(CH 2) n CH 3 or H, - y = 0-3, - m = 12-18, - n = 12-18, - p = 8-18, and
A tissue antiseptic composition comprising: an antimicrobial agent which is an iodophor, wherein the iodophor is povidone-iodine, wherein the antimicrobial agent is present in a sufficient concentration to provide an available iodine concentration of 0.1 wt-% to 2 wt-%; a hydroxycarboxylic acid present at a concentration of at least 2.5 wt-%; an amine oxide; and an iodide salt present in at least a concentration of 2.0 wt-%, and at an amount of no greater than 10 wt-%, wherein the composition is ready to use. an antimicrobial agent which is an iodophor, wherein the iodophor is povidone-iodine, wherein the antimicrobial agent is present in a sufficient concentration to provide an available iodine concentration of 0.1 wt-% to 2 wt-%; a hydroxycarboxylic acid present at a concentration of at least 2.5 wt-%; an amine oxide; and an iodide salt present in at least a concentration of 2.0 wt-%, and at an amount of no greater than 10 wt-%, wherein the composition is ready to use.
A non-transitory computer readable medium having stored thereon machine readable instructions to provide memory integrity checking, wherein the machine readable instructions, when executed, cause at least one processor to: receive computer program code; use a loader to load the computer program code in a memory,; and verify the integrity of the computer program code by implementing an asynchronous verification, wherein the asynchronous verification implemented by a media controller included in the memory containing the computer program code, wherein the memory includes a program for autonomously checking memory ranges, and wherein the media controller includes a plurality of active media controllers (120, 122) that are associated with a plurality of active memory controllers (112, 114), wherein each of the plurality of active media controllers (120, 122) is operative to perform an independent hash of a non-contiguous memory range of the memory that is controlled by that one of the plurality of active media controllers (120, 122), wherein the non-contiguous memory range is a range of memory addresses of the memory where computer program code is loaded. receive computer program code; use a loader to load the computer program code in a memory,; and verify the integrity of the computer program code by implementing an asynchronous verification, wherein the asynchronous verification implemented by a media controller included in the memory containing the computer program code, wherein the memory includes a program for autonomously checking memory ranges, and wherein the media controller includes a plurality of active media controllers (120, 122) that are associated with a plurality of active memory controllers (112, 114), wherein each of the plurality of active media controllers (120, 122) is operative to perform an independent hash of a non-contiguous memory range of the memory that is controlled by that one of the plurality of active media controllers (120, 122), wherein the non-contiguous memory range is a range of memory addresses of the memory where computer program code is loaded.
A hardened connector, comprising: an inner housing (1 55, 255) formed by two half-shells (155a, 255a, 255b), the two half-shells (155a, 255a, 255b) having a longitudinal passageway for passing at least one optical waveguide therethrough, a cable clamping portion (1 56), and a connector assembly receiving portion (1 57), and the connector assembly receiving portion (1 57) comprises an extended length cavity (1 57EC); a mechanical splice connector assembly, the mechanical splice connector assembly (1 52) comprises a connector body (1 52a) and a ferrule assembly having a stub optical fiber (1 52c) secured to a ferrule, wherein a portion of the mechanical splice connector assembly (1 52) is secured to the inner housing (1 55, 255) so that the ferrule assembly of the mechanical splice connector assembly (1 52) can move rearward into the extended length cavity when displaced rearward; and a shroud (160, 260), wherein a portion of the two half-shells (155a, 255a, 255b) is disposed within the shroud (160, 260), wherein the two half-shells (155a, 255a, 255b) are configured to secure the mechanical splice connector assembly (1 52) and to provide strain relief to a cable, wherein the cable comprises the at least one optical waveguide. an inner housing (1 55, 255) formed by two half-shells (155a, 255a, 255b), the two half-shells (155a, 255a, 255b) having a longitudinal passageway for passing at least one optical waveguide therethrough, a cable clamping portion (1 56), and a connector assembly receiving portion (1 57), and the connector assembly receiving portion (1 57) comprises an extended length cavity (1 57EC); a mechanical splice connector assembly, the mechanical splice connector assembly (1 52) comprises a connector body (1 52a) and a ferrule assembly having a stub optical fiber (1 52c) secured to a ferrule, wherein a portion of the mechanical splice connector assembly (1 52) is secured to the inner housing (1 55, 255) so that the ferrule assembly of the mechanical splice connector assembly (1 52) can move rearward into the extended length cavity when displaced rearward; and a shroud (160, 260), wherein a portion of the two half-shells (155a, 255a, 255b) is disposed within the shroud (160, 260), wherein the two half-shells (155a, 255a, 255b) are configured to secure the mechanical splice connector assembly (1 52) and to provide strain relief to a cable, wherein the cable comprises the at least one optical waveguide.
A vehicle comprising: a generally cylindrical body with a longitudinal axis and a surface; and a control system comprising: a plurality of control surfaces arrayed across the surface of the body, where the control surfaces are selectively movable between an aerodynamic stowed position where the control surfaces conform to the surface of the body, and a deployed control position removed from the aerodynamic stowed position where the control surfaces extend from the surface of the body to interact with airflow over the body; and a controller that selectively controls the position of the control surfaces; where the control surfaces are made of a shape-memory alloy and movement of the control surfaces is effected by a heating device that heats the shape-memory alloy; and each of the plurality of control surfaces is hingedly mounted to the body along a hinge line; and the hinge lines are arranged in at least two different orientations, including positive and negative angles relative to the longitudinal axis of the body; and the hinge line for each control surface extends in a direction transverse the longitudinal axis of the body but not orthogonal to the longitudinal axis. a generally cylindrical body with a longitudinal axis and a surface; and a control system comprising: a plurality of control surfaces arrayed across the surface of the body, where the control surfaces are selectively movable between an aerodynamic stowed position where the control surfaces conform to the surface of the body, and a deployed control position removed from the aerodynamic stowed position where the control surfaces extend from the surface of the body to interact with airflow over the body; and a controller that selectively controls the position of the control surfaces; a plurality of control surfaces arrayed across the surface of the body, where the control surfaces are selectively movable between an aerodynamic stowed position where the control surfaces conform to the surface of the body, and a deployed control position removed from the aerodynamic stowed position where the control surfaces extend from the surface of the body to interact with airflow over the body; and a controller that selectively controls the position of the control surfaces; where the control surfaces are made of a shape-memory alloy and movement of the control surfaces is effected by a heating device that heats the shape-memory alloy; and each of the plurality of control surfaces is hingedly mounted to the body along a hinge line; and the hinge lines are arranged in at least two different orientations, including positive and negative angles relative to the longitudinal axis of the body; and the hinge line for each control surface extends in a direction transverse the longitudinal axis of the body but not orthogonal to the longitudinal axis.
A method, comprising: performing, by a processor of an apparatus operable in a wireless local area network, WLAN, an enhanced long range, ELR, communication by either: transmitting an ELR physical-layer protocol data unit, PPDU,; or receiving the ELR PPDU, wherein the ELR PPDU comprises a spoofing preamble, an ELR preamble and an ELR data portion, the spoofing preamble comprises a legacy short training field, L-STF, a legacy long training field, L-LTF, and a legacy signaling, L-SIG, field, the ELR preamble comprises an ELR signature sequence, an ELR long training field, ELR-LTF, and an ELR signaling, ELR-SIG, field, and the ELR data portion carries data to be transmitted to one or more users, and wherein the ELR signature sequence indicates whether the ELR preamble and the ELR data portion are in a one-spatial-stream format or in a two-spatial-stream format. transmitting an ELR physical-layer protocol data unit, PPDU,; or receiving the ELR PPDU, wherein the ELR PPDU comprises a spoofing preamble, an ELR preamble and an ELR data portion, the spoofing preamble comprises a legacy short training field, L-STF, a legacy long training field, L-LTF, and a legacy signaling, L-SIG, field, the ELR preamble comprises an ELR signature sequence, an ELR long training field, ELR-LTF, and an ELR signaling, ELR-SIG, field, and the ELR data portion carries data to be transmitted to one or more users, and wherein the ELR signature sequence indicates whether the ELR preamble and the ELR data portion are in a one-spatial-stream format or in a two-spatial-stream format.
A resonant power source comprising: a source circuit that includes a source coil, an ac driver with a first resistance, representing an equivalent output impedance of the ac driver, and a matching network; characterized by: a current probe that measures a magnitude signal (I1_mag) of an instantaneous source coil current; an amplifier that receives and compares the magnitude (I1_mag) signal and a target signal (I1_target), and produces an error signal proportional to the difference; and a compensation filter that receives the error signal and produces a control voltage that determines an ac driver voltage (Vd) of the ac driver. a source circuit that includes a source coil, an ac driver with a first resistance, representing an equivalent output impedance of the ac driver, and a matching network; characterized by: a current probe that measures a magnitude signal (I1_mag) of an instantaneous source coil current; an amplifier that receives and compares the magnitude (I1_mag) signal and a target signal (I1_target), and produces an error signal proportional to the difference; and a compensation filter that receives the error signal and produces a control voltage that determines an ac driver voltage (Vd) of the ac driver.
A method of welding at least two adjacent components (62, 64) having top surfaces (83, 85), the method comprising: providing the two adjacent components (62, 64) having a gap up to approximately 3.0 millimeters therebetween; providing a hybrid welder having a laser with a laser beam and a focus point and an electric arc welder, characterised in that the electric welder has a consumable wire electrode, wherein the focus point of the laser is positioned above the top surfaces (83, 85) of the at least two adjacent components (62, 64); further characterised by placing a bridge piece adjacent to one or both of the adjacent components (62, 64); adjusting the distance of the focus point of the laser from the top surfaces (83, 85) of the adjacent components (62, 64) in dependence on the size of the gap therebetween; and directing energy toward one or both of the adjacent components (62, 64) with the hybrid welder at a high constant weld speed between approximately 760 millimeters per minute to approximately 3050 millimeters per minute so as to create a common molten pool, the laser providing additional energy allowing the common molten pool to melt the at least one bridge piece, wherein the hybrid welder and the laser provide a full penetration weld joining the components (62, 64) on cooling, and wherein the distance between the laser beam and the consumable wire electrode of the electric arc welder is between approximately 2.5 mm and 12 mm in the direction of the weld. providing the two adjacent components (62, 64) having a gap up to approximately 3.0 millimeters therebetween; providing a hybrid welder having a laser with a laser beam and a focus point and an electric arc welder, characterised in that the electric welder has a consumable wire electrode, wherein the focus point of the laser is positioned above the top surfaces (83, 85) of the at least two adjacent components (62, 64); further characterised by placing a bridge piece adjacent to one or both of the adjacent components (62, 64); adjusting the distance of the focus point of the laser from the top surfaces (83, 85) of the adjacent components (62, 64) in dependence on the size of the gap therebetween; and directing energy toward one or both of the adjacent components (62, 64) with the hybrid welder at a high constant weld speed between approximately 760 millimeters per minute to approximately 3050 millimeters per minute so as to create a common molten pool, the laser providing additional energy allowing the common molten pool to melt the at least one bridge piece, wherein the hybrid welder and the laser provide a full penetration weld joining the components (62, 64) on cooling, and wherein the distance between the laser beam and the consumable wire electrode of the electric arc welder is between approximately 2.5 mm and 12 mm in the direction of the weld.
An inkjet textile printing ink comprising a reactive dye or acidic dye, a first acetylene glycol-based surfactant, a second acetylene glycol-based surfactant, ethylene urea, and water, wherein the ink satisfies the following expression: 4 ≤ h 2 − h 1 ≤ 7 wherein h1 is an HLB value of the first acetylene glycol-based surfactant, and h2 is an HLB value of the second acetylene glycol-based surfactant.