mhurhangee/ep-ind-claims huggingface dataset:
A passenger seat for an aircraft, the seat comprising: a fixed seat portion configured to be connected to a floor of the aircraft to position a front of the fixed seat portion facing toward a first direction of the aircraft, the fixed seat portion having a centerline spaced equally from opposed lateral sides of the fixed seat portion, and a first engagement member extending upwardly from the front of the fixed seat portion at the centerline to a first engagement end; and a moveable seat portion, including a seat pan frame supporting a seat pan, and a backrest frame supporting a backrest, mounted onto the fixed seat portion and being displaceable relative thereto, the moveable seat portion having a second engagement member extending downwardly from a front of the moveable seat portion to a second engagement end, the second engagement member being displaceable with the moveable seat portion to position the second engagement end under the first engagement end of the first engagement member in an engagement position such that the overlapping first and second engagement ends prevent the moveable seat portion from pitching in a second direction of the aircraft opposite to the first direction, characterized in that the moveable seat portion is displaceable relative to the fixed seat portion in the first and second directions through a sliding assembly mounted to rails of the fixed seat portion, and in a yaw direction about an upright axis of the seat, through a swivel assembly. a fixed seat portion configured to be connected to a floor of the aircraft to position a front of the fixed seat portion facing toward a first direction of the aircraft, the fixed seat portion having a centerline spaced equally from opposed lateral sides of the fixed seat portion, and a first engagement member extending upwardly from the front of the fixed seat portion at the centerline to a first engagement end; and a moveable seat portion, including a seat pan frame supporting a seat pan, and a backrest frame supporting a backrest, mounted onto the fixed seat portion and being displaceable relative thereto, the moveable seat portion having a second engagement member extending downwardly from a front of the moveable seat portion to a second engagement end, the second engagement member being displaceable with the moveable seat portion to position the second engagement end under the first engagement end of the first engagement member in an engagement position such that the overlapping first and second engagement ends prevent the moveable seat portion from pitching in a second direction of the aircraft opposite to the first direction, characterized in that the moveable seat portion is displaceable relative to the fixed seat portion in the first and second directions through a sliding assembly mounted to rails of the fixed seat portion, and in a yaw direction about an upright axis of the seat, through a swivel assembly.
Microporous temperature-resistant polymer membrane, which resists gamma radiation, with two outer main surfaces, which are connected by the membrane body by way of micropores, and with a maximum temporary use temperature of at least 150° C, wherein the microporous membrane has a hydrophobicity gradient from the first outer main surface through the membrane body to the second outer main surface, wherein the hydrophobicity gradient is such that the hydrophobicity is at a maximum on the first outer main surface, initially decreases towards the second outer main surface, adopts a minimum within the microporous membrane body, but remains present, and subsequently increases again towards the second outer main surface without again attaining the maximum of the first outer main surface.
A porous metal substrate structure with high gas permeability and redox stability for a solid oxide fuel cell (SOFC) comprising: a porous metal plate composed of first metal particles, the first metal particles having a Fe content; and a porous metal film composed of second metal particles and formed on the porous metal plate; wherein the porous metal plate has a thickness more than the porous metal film; and the first metal particle has a size more than the second metal particle, characterized in that the first metal particles have first porous shells on the first metal particle surfaces, wherein a Fe content of each porous shell is richer than the Fe content ranging from 6 wt% to 15 wt% inside each of the first metal particles and these Fe-rich porous shells being capable of absorbing leakage oxygen. a porous metal plate composed of first metal particles, the first metal particles having a Fe content; and a porous metal film composed of second metal particles and formed on the porous metal plate; wherein the porous metal plate has a thickness more than the porous metal film; and the first metal particle has a size more than the second metal particle, characterized in that the first metal particles have first porous shells on the first metal particle surfaces, wherein a Fe content of each porous shell is richer than the Fe content ranging from 6 wt% to 15 wt% inside each of the first metal particles and these Fe-rich porous shells being capable of absorbing leakage oxygen.
A rotary/push operating device for a man-machine interface, in particular for an operating unit of a vehicle, comprising - a manually operable rotary/push element which can be rotated about a rotational axis and which can be pushed down in the direction of the rotational axis, - a rolling-body bearing defining the rotational axis, said rolling-body bearing comprising a immobile bearing ring, a movable bearing ring, and a rolling-body cage arranged between said bearing rings, - the rotary/push element being tightly coupled to the movable bearing ring, - the rolling-body cage comprising a plurality of rolling bodies arranged in at least one radial plane of the rolling-body cage, characterized in that - the immobile bearing ring and the movable bearing ring forming at least one circular moving channel (27,28) in which the rolling bodies, upon rotation of the rotary/push element, are movable in the circumferential direction of the two bearing rings (18,20) with rolling movements on opposite moving tracks (29,30, 31,32) of the two bearing rings (18,20), and, when the rotary/push element is being pushed, are movable in the direction of the rotational axis on the moving tracks (29,30,31,32) at a right angle relative to said circumferential direction, and - end abutment elements for limiting the movement of the rotary/push element in the direction of the rotational axis between a base position and a push-down position. - a manually operable rotary/push element which can be rotated about a rotational axis and which can be pushed down in the direction of the rotational axis, - a rolling-body bearing defining the rotational axis, said rolling-body bearing comprising a immobile bearing ring, a movable bearing ring, and a rolling-body cage arranged between said bearing rings, - the rotary/push element being tightly coupled to the movable bearing ring, - the rolling-body cage comprising a plurality of rolling bodies arranged in at least one radial plane of the rolling-body cage, - the immobile bearing ring and the movable bearing ring forming at least one circular moving channel (27,28) in which the rolling bodies, upon rotation of the rotary/push element, are movable in the circumferential direction of the two bearing rings (18,20) with rolling movements on opposite moving tracks (29,30, 31,32) of the two bearing rings (18,20), and, when the rotary/push element is being pushed, are movable in the direction of the rotational axis on the moving tracks (29,30,31,32) at a right angle relative to said circumferential direction, and - end abutment elements for limiting the movement of the rotary/push element in the direction of the rotational axis between a base position and a push-down position.
A method for training a machine for automatizing lighting control actions, wherein the method comprises the steps of: - controlling one or more lighting devices (110a-d) to render a first light effect based on a first set of control parameters; - controlling the one or more lighting devices to render a second light effect based on a second set of control parameters by transitioning over a transitioning time period from the first light effect to the second light effect; - receiving a feedback from a user during a feedback time period; characterised in that wherein if the feedback has been received within a predetermined time period during the feedback time period; - associating the feedback with the transition; and wherein if the feedback has been received after the predetermined time period during the feedback time period; - associating the feedback with the second light effect; and wherein the method further comprises: - training the machine based on the associated feedback; wherein the transition is characterized by transition characteristics, and wherein the machine training comprises determining the second set of control parameters and/or the transition characteristics. - controlling one or more lighting devices (110a-d) to render a first light effect based on a first set of control parameters; - controlling the one or more lighting devices to render a second light effect based on a second set of control parameters by transitioning over a transitioning time period from the first light effect to the second light effect; - receiving a feedback from a user during a feedback time period; characterised in that wherein if the feedback has been received within a predetermined time period during the feedback time period; - associating the feedback with the transition; and - associating the feedback with the transition; and wherein if the feedback has been received after the predetermined time period during the feedback time period; - associating the feedback with the second light effect; and - associating the feedback with the second light effect; and wherein the method further comprises: - training the machine based on the associated feedback; wherein the transition is characterized by transition characteristics, and wherein the machine training comprises determining the second set of control parameters and/or the transition characteristics. - training the machine based on the associated feedback; wherein the transition is characterized by transition characteristics, and wherein the machine training comprises determining the second set of control parameters and/or the transition characteristics.
A kit for parenteral administration of drugs formulated in lipophilic solvents comprising: a) at least one vessel containing a solution for intravenous infusion selected from a saline and a glucose solution; b) at least one dosage unit comprising a pre-filled syringe comprising 1 ml of a 5 mg solution of anhydrous tacrolimus and 200 mg hydrogenated polyoxyethylenated castor oil in dehydrated alcohol; the vessel (a) and dosage unit (b) being made of materials other than conventional PVC selected from glass, polyethylene, polypropylene and PVC free of any phthalates that may be released in lipophilic solvents. a) at least one vessel containing a solution for intravenous infusion selected from a saline and a glucose solution; b) at least one dosage unit comprising a pre-filled syringe comprising 1 ml of a 5 mg solution of anhydrous tacrolimus and 200 mg hydrogenated polyoxyethylenated castor oil in dehydrated alcohol;
A shovel comprising: a lower traveling body; an upper swiveling body that is rotatably mounted on the lower traveling body; an attachment that is attached to the upper swiveling body; and a controller characterized in that the controller is configured to perform straight facing control by which an actuator for swiveling or an actuator for travelling is automatically operated so that an operation plane of the attachment includes a normal to a target construction surface, based on information related to the target construction surface and information related to a direction of the upper swiveling body, the operation plane of the attachment being a virtual plane crossing the attachment in a longitudinal direction. a lower traveling body; an upper swiveling body that is rotatably mounted on the lower traveling body; an attachment that is attached to the upper swiveling body; and a controller
Device for ejecting a flat object under conveyance along a conveying path, comprising an input conveyor and an output conveyor which are arranged successively following each other along the conveying path, at least the downstream part of the input conveyor, referred to as orientable part, is mounted mobile between a conveying position wherein the input conveyor is capable of transporting the flat object along the conveying path, and an ejection position wherein the input conveyor is capable of conveying the flat object into a direction that is separate from the conveying path, and at least the upstream part of the output conveyor, referred to as orientable part, is mounted mobile between a conveying position wherein the output conveyor is capable of transporting the flat object along the conveying path, and the ejection position wherein the orientable part of the output conveyor extends in a direction which is separate from the conveying path, and in a zone of the space which, with respect to the conveying path, is opposite that occupied by the orientable part of the input conveyor when the latter is itself also in an ejection position, characterised in that each conveyor (10, 20) is provided with a structure of variable geometry, able to be deformed locally such that only one part (11, 21) of the conveyor (10, 20) can be moved, and in that each conveyor (10, 20) is constituted by the superposition of two transporters, a lower transporter (15, 25) and an upper transporter (16, 26), the orientable part of the input conveyor relates to both the downstream part of the lower transporter and the downstream part of the upper transporter, the orientable part of the output conveyor relates to both the upstream part of the lower transporter and the upstream part of the upper transporter.
A system (100, 400, 500, 600), comprising: a photonic oscillator configured to produce a multifrequency optical signal having a spectrum that includes regularly spaced spectral lines; a first photodetector (106, 106A, 506) configured to convert the multifrequency optical signal to a first multifrequency electrical signal (108, 108A, 508) having a spectrum that includes the regularly spaced spectral lines; a first bandpass filter (110, 110A, 610) configured to attenuate all but a first spectral line of the spectrum of the first multifrequency electrical signal to form a first single-frequency electrical signal (112, 112A, 612) at the frequency of the first spectral line; and a first continuous-wave laser (114, 114A) configured to lock to the multifrequency optical signal and produce a first continuous-wave optical signal (116, 116A) at a first wavelength in response to the multifrequency optical signal. a photonic oscillator configured to produce a multifrequency optical signal having a spectrum that includes regularly spaced spectral lines; a first photodetector (106, 106A, 506) configured to convert the multifrequency optical signal to a first multifrequency electrical signal (108, 108A, 508) having a spectrum that includes the regularly spaced spectral lines; a first bandpass filter (110, 110A, 610) configured to attenuate all but a first spectral line of the spectrum of the first multifrequency electrical signal to form a first single-frequency electrical signal (112, 112A, 612) at the frequency of the first spectral line; and a first continuous-wave laser (114, 114A) configured to lock to the multifrequency optical signal and produce a first continuous-wave optical signal (116, 116A) at a first wavelength in response to the multifrequency optical signal.
An assembly comprising an elastic conductive track and a flexible conductive support base assembly arranged on a fabric, the flexible conductive support base being a textile comprising conductive fibers and non-conductive fibers and having at least one of its ends round shaped, wherein at least one end of the track is in contact with the at least one round shaped end of at least one flexible conductive support base, and the non-contact area by the track of the at least one flexible conductive support base is in electrical contact with a rigid electrical component
A coolant-control valve comprising: a valve body that is driven to control a flow rate of coolant for cooling an engine, the valve body being operated to control flow of coolant; a casing that houses the valve body; an actuator that drives the valve body and that includes a motor and a reduction gear that decelerates rotation of the motor, wherein the actuator rotationally operates the valve body; control means that controls the actuator;; and restricting means (43, 44) that regulates the operating range of the valve body, by restricting the operating range of at least one power transmission element except an output shaft configured to transmit power to the valve body among power transmission elements provided in the reduction gear, characterized in that the control means has an initialization learning function of an operating range of the valve body, the restriction means (43, 44) is configured to be used for specifying the operating range of the valve body that is learned during initialization learning using the control means, the power transmission element of which the operating range is restricted by the restricting means (43, 44) is an output gear that rotates the valve body via the output shaft, the restricting means (43, 44) includes an arch-shaped groove that is provided in the output gear and centered on a rotation center of the output gear, and an angle stopper that is inserted into the groove and fixed to the rotating output gear, and the rotational angle range of the output gear is restricted by abutment of the angle stopper against each of both end portions of the groove. a valve body that is driven to control a flow rate of coolant for cooling an engine, the valve body being operated to control flow of coolant; a casing that houses the valve body; an actuator that drives the valve body and that includes a motor and a reduction gear that decelerates rotation of the motor, wherein the actuator rotationally operates the valve body; control means that controls the actuator;; and restricting means (43, 44) that regulates the operating range of the valve body, by restricting the operating range of at least one power transmission element except an output shaft configured to transmit power to the valve body among power transmission elements provided in the reduction gear, characterized in that the control means has an initialization learning function of an operating range of the valve body, the restriction means (43, 44) is configured to be used for specifying the operating range of the valve body that is learned during initialization learning using the control means, the power transmission element of which the operating range is restricted by the restricting means (43, 44) is an output gear that rotates the valve body via the output shaft, the restricting means (43, 44) includes an arch-shaped groove that is provided in the output gear and centered on a rotation center of the output gear, and an angle stopper that is inserted into the groove and fixed to the rotating output gear, and the rotational angle range of the output gear is restricted by abutment of the angle stopper against each of both end portions of the groove.
A method for analyzing a sample containing hemoglobin A2 by capillary electrophoresis using an alkaline aqueous solution containing a cationic polymer, the method comprising the following steps 1) to 7): 1) a step of obtaining an electropherogram of the sample by capillary electrophoresis; 2) a step of specifying a detection time Tx of an X peak detected at a time earlier than an HbA2 peak; 3) a step of specifying a detection time Ta2 of an HbA2 peak; 4) a step of specifying a detection time Ty of a Y peak detected at a time later than the HbA2 peak; 5) a step of calculating a correction coefficient from a relative relationship between the detection time Tx of the X peak, the detection time Ta2 of the HbA2 peak, and the detection time Ty of the Y peak; 6) a step of calculating a ratio of an HbA2 peak area to a total peak area or a ratio of a Y peak area to the total peak area in the electropherogram; and 7) a step of correcting the ratio of the HbA2 peak area or the ratio of the Y peak area with the correction coefficient. 1) a step of obtaining an electropherogram of the sample by capillary electrophoresis; 2) a step of specifying a detection time Tx of an X peak detected at a time earlier than an HbA2 peak; 3) a step of specifying a detection time Ta2 of an HbA2 peak; 4) a step of specifying a detection time Ty of a Y peak detected at a time later than the HbA2 peak; 5) a step of calculating a correction coefficient from a relative relationship between the detection time Tx of the X peak, the detection time Ta2 of the HbA2 peak, and the detection time Ty of the Y peak; 6) a step of calculating a ratio of an HbA2 peak area to a total peak area or a ratio of a Y peak area to the total peak area in the electropherogram; and 7) a step of correcting the ratio of the HbA2 peak area or the ratio of the Y peak area with the correction coefficient.
A power toothbrush, comprising a driving assembly including a battery and a DC motor, the DC motor having a rotating drive shaft extending from one end thereof; an eccentric member mounted on or connected by another element to the drive shaft and rotatable therewith; a spring assembly which includes a spring member characterized by a stiffness in torsion which results in a rotational system resonant frequency that is lower than the rotational system resonant frequency from bending stiffness, wherein the motor is mounted to a proximal end of the spring assembly, which is free to move, wherein the other end of the spring assembly is fixed in position; a brushhead shaft which is mounted to the spring assembly and extends distally therefrom; and a brushhead, with bristles, attached to the brushhead shaft, wherein in operation the rotation of the eccentric at a selected frequency excites the spring member to an oscillatory action, resulting in the brush shaft and the brushhead oscillating therewith.