mhurhangee/ep-ind-claims huggingface dataset:
A method for servicing a landing gear shock strut (104;210) comprising: deflating the shock strut (104;210); compressing the shock strut (104;210) until the shock strut (104; 210) is in a fully compressed position; and charging the shock strut (104;210) with a liquid until a pressure of the liquid decreases a volume of a residual air located inside of the shock strut (104;210), and characterized by further comprising discharging a pre-determined volume of liquid from the shock strut (104;210). deflating the shock strut (104;210); compressing the shock strut (104;210) until the shock strut (104; 210) is in a fully compressed position; and charging the shock strut (104;210) with a liquid until a pressure of the liquid decreases a volume of a residual air located inside of the shock strut (104;210), and characterized by further comprising discharging a pre-determined volume of liquid from the shock strut (104;210).
A blade dispenser, comprising: a housing defining a carrier cavity having an open end, which housing includes a blade loading mechanism; a carrier operable to hold a plurality of blades, and which carrier is selectively disposable within the carrier cavity of the housing; and a blade eject assembly having a button biased in a normal position relative to a base, wherein the button is operable to be moved relative to the base and engage a blade disposed within the carrier and move the blade to a position where at least a part of the blade is disposed outside the housing, wherein the blade eject assembly is selectively positionable relative to the housing in an open position and in a closed position, and wherein the blade eject assembly is pivotally mounted to the housing. a housing defining a carrier cavity having an open end, which housing includes a blade loading mechanism; a carrier operable to hold a plurality of blades, and which carrier is selectively disposable within the carrier cavity of the housing; and a blade eject assembly having a button biased in a normal position relative to a base, wherein the button is operable to be moved relative to the base and engage a blade disposed within the carrier and move the blade to a position where at least a part of the blade is disposed outside the housing, wherein the blade eject assembly is selectively positionable relative to the housing in an open position and in a closed position, and wherein the blade eject assembly is pivotally mounted to the housing.
An apparatus, including an integrated microfluidic card, the integrated microfluidic card comprising: a board assembly with channels; a plurality of modular modules in microfluidic connection with one another and each configured and arranged to detect nucleic acid, the plurality of modular modules including: a reagent module configured and arranged to contain and deliver reagents to other of the plurality of modular modules; a lysis module configured and arranged to carry out lysis on a sample input to the integrated microfluidic card; a purification module configured and arranged to purify targets in the sample from other material in the sample; a polymerase chain reaction module configured and arranged to amplify and label the targets; and a detection module configured and arranged to hybridize the amplified and labeled-targets for detection of the amplified and labeled targets; an input chamber configured and arranged to receive the sample and introduce the sample to the channels; a plurality of ports and valves configured and arranged to control a flow of fluid within fluidic chambers of the plurality of modular modules and the channels, the fluid including the sample and the reagents; and at least one vent configured and arranged to remove bubbles from the channels. a board assembly with channels; a plurality of modular modules in microfluidic connection with one another and each configured and arranged to detect nucleic acid, the plurality of modular modules including: a reagent module configured and arranged to contain and deliver reagents to other of the plurality of modular modules; a lysis module configured and arranged to carry out lysis on a sample input to the integrated microfluidic card; a purification module configured and arranged to purify targets in the sample from other material in the sample; a polymerase chain reaction module configured and arranged to amplify and label the targets; and a detection module configured and arranged to hybridize the amplified and labeled-targets for detection of the amplified and labeled targets; a reagent module configured and arranged to contain and deliver reagents to other of the plurality of modular modules; a lysis module configured and arranged to carry out lysis on a sample input to the integrated microfluidic card; a purification module configured and arranged to purify targets in the sample from other material in the sample; a polymerase chain reaction module configured and arranged to amplify and label the targets; and a detection module configured and arranged to hybridize the amplified and labeled-targets for detection of the amplified and labeled targets; an input chamber configured and arranged to receive the sample and introduce the sample to the channels; a plurality of ports and valves configured and arranged to control a flow of fluid within fluidic chambers of the plurality of modular modules and the channels, the fluid including the sample and the reagents; and at least one vent configured and arranged to remove bubbles from the channels.
A method of controlling a wind turbine rotor blade, the blade comprising a pitch axis about which the blade can be pitched, and a flap movable to alter the aerodynamic profile of the blade, the method comprising the steps of: providing a pitch angle request (θ) to a pitch actuator; determining an initial flap angle request (β_flap); providing a decoupled flap angle request (β) to a flap actuator; wherein the decoupled flap angle request (β) is calculated from the pitch angle request (θ) and the initial flap angle request (β_flap) such that the decoupled flap angle request (β) provided to the flap actuator does not counteract the pitch angle request (θ); and pitching the blade according to the pitch angle request (θ) and moving the flap according to the decoupled flap angle request (β). providing a pitch angle request (θ) to a pitch actuator; determining an initial flap angle request (β_flap); providing a decoupled flap angle request (β) to a flap actuator; wherein the decoupled flap angle request (β) is calculated from the pitch angle request (θ) and the initial flap angle request (β_flap) such that the decoupled flap angle request (β) provided to the flap actuator does not counteract the pitch angle request (θ); and pitching the blade according to the pitch angle request (θ) and moving the flap according to the decoupled flap angle request (β).
A drag chain, comprising a plurality of links which are adapted to be fitted together in a longitudinal direction A and which are adapted to swivel in relation to each other and together form a guide channel for accommodating at least one cable or one line, a separate spring element being inserted between each pair of adjacent links which pretensions the adjacent links to a preferential orientation, and the spring element being slid on a respective central piece of the adjacent links, characterized in that the spring element is supported at its axial ends on respective detent connection sections of the adjacent links, a respective outer part of the respective link being mounted to the associated central piece by means of the detent connection sections.
Disposable sensor device for patient monitoring comprising: - a sensor for providing an electric quantity based on a quantity to be detected; - a first signal terminal for providing a tap for the electric quantity; - a first supply terminal for supplying the sensor with an electrical supply quantity; - a first connector for accommodating the first signal terminal and the first supply terminal; - a second signal terminal for providing a further tap for the electric quantity; and - a second connector for accommodating the second signal terminal, characterized in that the disposable sensor device further comprises a second supply terminal for tapping the electrical supply quantity provided via the first connector, wherein the second connector is further configured to accommodate the second supply terminal. - a sensor for providing an electric quantity based on a quantity to be detected; - a first signal terminal for providing a tap for the electric quantity; - a first supply terminal for supplying the sensor with an electrical supply quantity; - a first connector for accommodating the first signal terminal and the first supply terminal; - a second signal terminal for providing a further tap for the electric quantity; and - a second connector for accommodating the second signal terminal, characterized in that the disposable sensor device further comprises a second supply terminal for tapping the electrical supply quantity provided via the first connector, wherein the second connector is further configured to accommodate the second supply terminal.
Process for making a fluorinated lithiated transition metal oxide according to general formula Li 1+x (Ni a Co b Mn c M d) 1-x O 2 wherein x is in the range of from zero to 0.2 a is in the range of from 0.5 to 0.9, b is in the range of from zero to 0.35, c is in the range of from 0.05 to 0.4, d is in the range of from zero to 0.2, with a + b+ c+ d = 1 M being selected from Al, Mg, Ca, V, Mo, Ti, Fe, Zn, Nb, W, and Zr, wherein the particles from the above compound are being partially covered with LiF, comprising the step of treating a lithiated transition metal oxide containing at least two different transition metal cations and, as an impurity, at least one lithium compound selected from lithium hydroxide, lithium oxide and lithium carbonate and from combinations of at least two thereof, with at least one fluorine compound selected from HF, NH 4 F and (NH 4) 3 AlF 6. x is in the range of from zero to 0.2 a is in the range of from 0.5 to 0.9, b is in the range of from zero to 0.35, c is in the range of from 0.05 to 0.4, d is in the range of from zero to 0.2, with a + b+ c+ d = 1 M being selected from Al, Mg, Ca, V, Mo, Ti, Fe, Zn, Nb, W, and Zr, wherein the particles from the above compound are being partially covered with LiF, comprising the step of treating a lithiated transition metal oxide containing at least two different transition metal cations and, as an impurity, at least one lithium compound selected from lithium hydroxide, lithium oxide and lithium carbonate and from combinations of at least two thereof, with at least one fluorine compound selected from HF, NH 4 F and (NH 4) 3 AlF 6.
An absorptive film comprising a gettering layer having a gettering agent, wherein the gettering agent comprises first moisture absorbent particles, which have an average particle size in a range of 20 nm to 100 nm; and second moisture absorbent particles, which surround a surface of each first moisture absorbent particle and have a lower rate of moisture absorption than the first moisture absorbent particles, wherein the first moisture absorbent particle is CaO and the second moisture absorbent particle is MgO, wherein the particle size of the particles is measured by a scanning electron microscope image, wherein the rate of moisture absorption of the first and the second absorbent particles is calculated after the first or second moisture absorbent particles in a state of having a moisture content of 0 to 0.1 wt% are maintained at 25°C and a relative humidity of 70% for 1 hour, and wherein the gettering agent has 8 wt% or less of a moisture content, which is calculated after the gettering agent in a state of having the moisture content of 0 to 0.1 wt% is maintained at 25°C and a relative humidity of 70% for 1 hour.
A fluid-ejection device comprising: - a first member having an inlet suitable for being connected to a source of fluid; - a second member that can be moved relative to the first member; and - a control member arranged to be at least in: - a first condition, in which the control member is at least substantially inside the second member preventing the flow of fluid through the second member to define a first stroke of the second member where no discharge of fluid is allowed out of the device; and - a second condition, in which the control member is at least substantially outside the second member allowing the flow of fluid through the second member to define a second stroke of the second member along which discharge of fluid is allowed out of the device; sealing means arranged between the first member and the second member and attached to the second member, characterized in that it includes one-way valve means associated with the second member to allow the fluid supplied by the source of fluid to enter therein, wherein the one-way valve means are formed in the sealing means. - a first member having an inlet suitable for being connected to a source of fluid; - a second member that can be moved relative to the first member; and - a control member arranged to be at least in: - a first condition, in which the control member is at least substantially inside the second member preventing the flow of fluid through the second member to define a first stroke of the second member where no discharge of fluid is allowed out of the device; and - a second condition, in which the control member is at least substantially outside the second member allowing the flow of fluid through the second member to define a second stroke of the second member along which discharge of fluid is allowed out of the device;
Screw having a longitudinal axis and comprising a threaded shank and a head within which is formed a socket intended to be engaged by a wrench and having a pluri-lobed external profile comprising a series of lobes circumferentially offset and separated by a series of circumferentially offset protrusions of said head, each protrusion being delimited by two flanks and a front length joining the radially inner ends of said flanks and being convex and symmetric with respect to a center axis radially oriented with respect to said longitudinal axis, wherein said front length is formed by a center face and two inclined side faces each of which joins the radially inner end of the respective flank with a respective end of the center face which is orthogonally orientated with respect to said center axis of the protrusion.
A chucking apparatus for positioning a tire in a tire uniformity machine, the apparatus comprising: an upper chuck assembly; a lower chuck assembly operative with said upper chuck assembly to capture a tire therebetween; and a dual piston cylinder coupled to said lower chuck assembly so as to move the tire into engagement with said upper chuck assembly, said dual piston cylinder having an axially extending inner piston rod from which axially extends a field-replaceable inner piston stem, characterised by said inner piston rod having an axial stem opening with a rod internal surface, said inner piston stem having a threaded shaft detachably received in said axial stem opening. an upper chuck assembly; a lower chuck assembly operative with said upper chuck assembly to capture a tire therebetween; and a dual piston cylinder coupled to said lower chuck assembly so as to move the tire into engagement with said upper chuck assembly, said dual piston cylinder having an axially extending inner piston rod from which axially extends a field-replaceable inner piston stem, characterised by said inner piston rod having an axial stem opening with a rod internal surface, said inner piston stem having a threaded shaft detachably received in said axial stem opening.
A sheet feeding device comprising: a housing; a sheet stacker included in the housing, the sheet stacker being configured to stack a sheet; a stacker elevator configured to elevate the sheet stacker; an extension sheet stacker attached to the sheet stacker, the extension sheet stacker being configured to extend outward from the housing; and a support configured to support the extension sheet stacker, characterised in that the sheet feeding device further comprises a rotary member disposed at a contact portion at which the support contacts the housing, and the support having an inclined portion configured to diagonally extend in a sheet conveyance direction, to the housing from a position upstream from a center of the extension sheet stacker in the sheet conveyance direction, when viewed from a width direction of the sheet. a housing; a sheet stacker included in the housing, the sheet stacker being configured to stack a sheet; a stacker elevator configured to elevate the sheet stacker; an extension sheet stacker attached to the sheet stacker, the extension sheet stacker being configured to extend outward from the housing; and a support configured to support the extension sheet stacker, characterised in that the sheet feeding device further comprises a rotary member disposed at a contact portion at which the support contacts the housing, and the support having an inclined portion configured to diagonally extend in a sheet conveyance direction, to the housing from a position upstream from a center of the extension sheet stacker in the sheet conveyance direction, when viewed from a width direction of the sheet.
Device for treatment of a liquid with a non-thermal atmospheric pressure plasma, wherein the device comprises the following components: - a high-voltage electrode; - a liquid-permeable ground electrode device comprising an areal, conductive region and a porous region arranged at the areal, conductive region; - a discharge space formed between the ground electrode device and the high-voltage electrode; - a first dielectric which is arranged at the high-voltage electrode such that a plasma can be generated in the discharge space by means of a dielectric-barrier discharge; - a flow volume comprised by a wall into which the liquid can be fed; wherein the wall of the flow volume comprises at least in a first region the ground electrode device, such that the flow volume is connected liquid-permeably to the discharge space via the ground electrode device; wherein the device is formed such that, in use, the liquid fed into the flow volume passes through the ground electrode device and pours onto a surface of the ground electrode device that faces the discharge space, so that a liquid film is formed on said surface; characterized in that the conductive region of the ground electrode device is liquid-permeable along its areal expansion. - a high-voltage electrode; - a liquid-permeable ground electrode device comprising an areal, conductive region and a porous region arranged at the areal, conductive region; - a discharge space formed between the ground electrode device and the high-voltage electrode; - a first dielectric which is arranged at the high-voltage electrode such that a plasma can be generated in the discharge space by means of a dielectric-barrier discharge; - a flow volume comprised by a wall into which the liquid can be fed; wherein the wall of the flow volume comprises at least in a first region the ground electrode device, such that the flow volume is connected liquid-permeably to the discharge space via the ground electrode device; wherein the device is formed such that, in use, the liquid fed into the flow volume passes through the ground electrode device and pours onto a surface of the ground electrode device that faces the discharge space, so that a liquid film is formed on said surface; characterized in that the conductive region of the ground electrode device is liquid-permeable along its areal expansion.
A method for transmitting a precoded uplink signal to a base station, BS, by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to the BS, uplink reference signals corresponding to a plurality of antenna ports and antenna port group information, wherein the antenna port group information includes information on antenna port groups composed of the plurality of antenna ports and information on signal distortion level between the antenna port groups; receiving, from the BS, information on an uplink precoder determined based on the uplink reference signals and the antenna port group information; precoding the uplink signal based on the information on the uplink precoder; transmitting, to the BS, the precoded uplink signal, wherein the information on the uplink precoder includes partial precoders for the antenna port groups, wherein, based on the signal distortion level being less than a predetermined value, the information on the uplink precoder includes phase information for concatenation of the partial precoders. transmitting, to the BS, uplink reference signals corresponding to a plurality of antenna ports and antenna port group information, wherein the antenna port group information includes information on antenna port groups composed of the plurality of antenna ports and information on signal distortion level between the antenna port groups; receiving, from the BS, information on an uplink precoder determined based on the uplink reference signals and the antenna port group information; precoding the uplink signal based on the information on the uplink precoder; transmitting, to the BS, the precoded uplink signal, wherein the information on the uplink precoder includes partial precoders for the antenna port groups, wherein, based on the signal distortion level being less than a predetermined value, the information on the uplink precoder includes phase information for concatenation of the partial precoders.