mhurhangee/patent-ind-claim-en huggingface dataset:
Landing gear door system, comprising: - a landing gear bay configured for accommodating a landing gear in a retracted position, the landing gear bay comprising an opening for the landing gear to be deployed from the landing gear bay , - a landing gear door configured for opening and closing the opening of the landing gear bay , - an actuator attached to the landing gear bay and connected to the landing gear door for operating the landing gear door between an open position and a closed position, - a lock located in the landing gear bay and configured to latch the landing gear door in the closed position, - a stop fitting located in the landing gear bay and configured to be in connection with the landing gear door at least in its latched position, characterised in that the landing gear door system further comprises an additional actuator configured to apply a force to the landing gear door in its closed position and to elastically deform the landing gear door towards the landing gear door bay . - a landing gear bay configured for accommodating a landing gear in a retracted position, the landing gear bay comprising an opening for the landing gear to be deployed from the landing gear bay , - a landing gear door configured for opening and closing the opening of the landing gear bay , - an actuator attached to the landing gear bay and connected to the landing gear door for operating the landing gear door between an open position and a closed position, - a lock located in the landing gear bay and configured to latch the landing gear door in the closed position, - a stop fitting located in the landing gear bay and configured to be in connection with the landing gear door at least in its latched position,
A modifier represented by Formula 1: wherein, in Formula 1, R 1 , R 2 , and R 5 are each independently a monovalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with at least one substituent selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, and an aryl group having 6 to 30 carbon atoms, R 3 and R 4 are each independently a divalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with an alkyl group having 1 to 20 carbon atoms, and n is an integer of 1 to 3, and wherein the modifier does not include one represented by Formula 1-2: R 1 , R 2 , and R 5 are each independently a monovalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with at least one substituent selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, and an aryl group having 6 to 30 carbon atoms, R 3 and R 4 are each independently a divalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with an alkyl group having 1 to 20 carbon atoms, and n is an integer of 1 to 3, and wherein the modifier does not include one represented by Formula 1-2:
A compound bone plate (100, 200, 400,..) for attaching a bone flap to a skull, the compound bone plate comprising: a plurality of plate members (102, 202, 402,..), each of the plurality of plate members operable to be attached to the bone flap and the skull; a plurality of burr hole covers (104,204, 404,..); and a strut (218, 418,..) connecting the plurality of plate members (102, 202, 402,..) and burr hole covers (104, 204, 404,..), characterised in that the strut comprises a notch which results in a thinning of the strut. a plurality of plate members (102, 202, 402,..), each of the plurality of plate members operable to be attached to the bone flap and the skull; a plurality of burr hole covers (104,204, 404,..); and a strut (218, 418,..) connecting the plurality of plate members (102, 202, 402,..) and burr hole covers (104, 204, 404,..), characterised in that the strut comprises a notch which results in a thinning of the strut.
An esterase which (i) has at least 75%, 80%, 85%, 90%, 95% or 99% identity to the full length amino acid sequence set forth in SEQ ID N°1, and (ii) has at least one amino acid substitution selected from Q182D/E, , wherein the positions are numbered by reference to the amino acid sequence set forth in SEQ ID N°1, and (iii) exhibits increased polyester degrading activity and/or an increased thermostability compared to an esterase of SEQ ID N°1.
A blister package for a contact lens , the blister package comprising: a body , the body comprising a handle , a well connected to the handle, and a body top surface , the well having a perimeter and an inner sidewall defining a bottom surface ; and a flexible top contacting the body top surface around the perimeter of, and closing, the well , the flexible top having a peel tab and being peelable away from the body to open the well ; and characterised in that , the blister package comprising: a deformable slider comprising a lens support, wherein the deformable slider is disposed between the body and the flexible top , the lens support is disposed in the well and adjacent the bottom surface , and the deformable slider is configured such that, by pulling the deformable slider taut, the lens support is lifted away from the bottom surface ; and a contact lens in the well and supported by the lens support. a body , the body comprising a handle , a well connected to the handle, and a body top surface , the well having a perimeter and an inner sidewall defining a bottom surface ; and a flexible top contacting the body top surface around the perimeter of, and closing, the well , the flexible top having a peel tab and being peelable away from the body to open the well ; and characterised in that , the blister package comprising: a deformable slider comprising a lens support, wherein the deformable slider is disposed between the body and the flexible top , the lens support is disposed in the well and adjacent the bottom surface , and the deformable slider is configured such that, by pulling the deformable slider taut, the lens support is lifted away from the bottom surface ; and a contact lens in the well and supported by the lens support. a deformable slider comprising a lens support, wherein the deformable slider is disposed between the body and the flexible top , the lens support is disposed in the well and adjacent the bottom surface , and the deformable slider is configured such that, by pulling the deformable slider taut, the lens support is lifted away from the bottom surface ; and a contact lens in the well and supported by the lens support.
Belt fitting for a seat belt device in a vehicle, comprising a base portion and an insertion tongue projecting therefrom, the base portion having a belt eyelet that has a belt strap running surface which, when the seat belt is fastened, is in sliding contact with a belt strap guided through the belt eyelet , the belt strap running surface transitioning, in the belt strap transverse direction, on both sides at lateral corner regions , into a belt eyelet edge opposite the belt strap running surface , and the belt strap running surface having a surface contour which, in a load case, provides stable belt strap transverse guidance in the belt eyelet , which guidance counteracts a transverse load component (F y ) acting on the belt strap , characterized in that a displacement body is formed on the belt eyelet edge opposite the belt strap running surface , which displacement body reduces a gap width of the belt eyelet , and in that the displacement body , viewed in the belt strap transverse direction, is spaced apart, on both sides, from the relevant lateral belt eyelet corner region via a belt strap free space .
A programmable logic device, comprising: a multiplier configured to perform a multiplication operation based on a multiplier coding comprising one or more coded multiplier values, characterised in that : the multiplier skips implementation for a subset of the coded multiplier values; and a structure configured to detect whether the multiplier skips implementation for a coded multiplier value and handle a skipped coded multiplier value. a multiplier configured to perform a multiplication operation based on a multiplier coding comprising one or more coded multiplier values, characterised in that : the multiplier skips implementation for a subset of the coded multiplier values; and a structure configured to detect whether the multiplier skips implementation for a coded multiplier value and handle a skipped coded multiplier value.
A concave assembly for an agricultural machine comprising: a frame pivotally connected to a structural component, the frame comprising a trunnion having a front end and a rear end , a front arm connected to the trunnion , a rear arm connected to the trunnion , a crossbar extending between the front arm and the rear arm and a concave connected to the frame , the concave comprising a first outer support and a second outer support and a plurality of separator bars extending between the first outer support and the second outer support , characterized in that a rotating member is rotatably connected to the crossbar and that an inner support is positioned between the first outer support and the second outer support . a frame pivotally connected to a structural component, the frame comprising a trunnion having a front end and a rear end , a front arm connected to the trunnion , a rear arm connected to the trunnion , a crossbar extending between the front arm and the rear arm and a concave connected to the frame , the concave comprising a first outer support and a second outer support and a plurality of separator bars extending between the first outer support and the second outer support , characterized in that a rotating member is rotatably connected to the crossbar and that an inner support is positioned between the first outer support and the second outer support .
A circuit for low-noise reference signal generation , comprising: a filter unit , comprising a transistor (M) and an energy storage component (E), wherein the transistor (M) comprises a first node (n1), a second node (n2), a control node (n3) and a body node (n4), the first node (n1) is configured to receive a input signal (S1), the second node (n2) is configured to output a filtered signal (S2), the control node (n3) is configured to receive a control signal (CTL) for controlling the transistor (M) to turn on or off, the body node (n4) is connected to the second node (n2) through an amplifier, wherein the amplifier is configured to provide a tracking signal (S3) to the body node (n4) based on the filtered signal (S2), and the energy storage component (E) is connected to the second node (n2) of the transistor (M); and a functional unit , connected to the second node (n2) of the transistor (M) and the energy storage component (E), wherein the functional unit has high input impedance, wherein the control signal (CTL) is a PWM signal with regular pulse, a PWM signal with irregular pulse or a PFM signal, and that when the control signal (CTL) is in a state of a first voltage level, the transistor (M) is turned on, the energy storage component (E) is charged via the transistor (M); when the control signal (CTL) is in a state of a second voltage level, the transistor (M) is turned off, the filter unit is configured as a low pass filter, and the transistor (M) is equivalent to a resistor of the low pass filter. a filter unit , comprising a transistor (M) and an energy storage component (E), wherein the transistor (M) comprises a first node (n1), a second node (n2), a control node (n3) and a body node (n4), the first node (n1) is configured to receive a input signal (S1), the second node (n2) is configured to output a filtered signal (S2), the control node (n3) is configured to receive a control signal (CTL) for controlling the transistor (M) to turn on or off, the body node (n4) is connected to the second node (n2) through an amplifier, wherein the amplifier is configured to provide a tracking signal (S3) to the body node (n4) based on the filtered signal (S2), and the energy storage component (E) is connected to the second node (n2) of the transistor (M); and a functional unit , connected to the second node (n2) of the transistor (M) and the energy storage component (E), wherein the functional unit has high input impedance, wherein the control signal (CTL) is a PWM signal with regular pulse, a PWM signal with irregular pulse or a PFM signal, and that when the control signal (CTL) is in a state of a first voltage level, the transistor (M) is turned on, the energy storage component (E) is charged via the transistor (M); when the control signal (CTL) is in a state of a second voltage level, the transistor (M) is turned off, the filter unit is configured as a low pass filter, and the transistor (M) is equivalent to a resistor of the low pass filter.
Method for operating a working machine , such as a material-transferring device, comprising an electric drive with at least one electric motor for driving a drive train , wherein recovered energy that is recovered in a towing and/or braking operation and transferred from the drive train to the electric motor is stored intermediately, characterized in that the electric motor is used as a flywheel storage system for the intermediate storage of the recovered energy, wherein an electromagnetic torsional and/or drag torque of the electric motor is controlled as a function of motor speed and is kept at essentially zero by a motor control device in a storage device speed range above a nominal operating speed (n Nenn ), both in the towing and/or braking operation mode, in which there is a power flow from the drive train to the electric motor , and in a drive mode, in which there is a power flow from the electric motor to the power train .
A submarine optical transmission apparatus comprising: an optical component and an electric component; a plurality of first component housing units configured to be capable of housing either or both of the optical component and the electric component and to be stacked in a first direction; a case configured to be capable of housing the stacked first component housing units , a longitudinal direction thereof being a second direction orthogonal to the first direction; and a heat dissipating member disposed in the case and configured to conduct heat generated in the plurality of first component housing units to the case , wherein each of the plurality of first component housing units comprises a substrate whose principal surface is normal to the first direction, and either or both of the optical component and the electric component are mounted on the substrate, and a component mounting surface of a first substrate included in the plurality of first component housing units and a component mounting surface of a second substrate included in the plurality of first component housing units are opposed to each other, characterized in that the heat dissipating member contacts with the substrate of each of the plurality of first component housing units . an optical component and an electric component; a plurality of first component housing units configured to be capable of housing either or both of the optical component and the electric component and to be stacked in a first direction; a case configured to be capable of housing the stacked first component housing units , a longitudinal direction thereof being a second direction orthogonal to the first direction; and a heat dissipating member disposed in the case and configured to conduct heat generated in the plurality of first component housing units to the case , wherein each of the plurality of first component housing units comprises a substrate whose principal surface is normal to the first direction, and either or both of the optical component and the electric component are mounted on the substrate, and a component mounting surface of a first substrate included in the plurality of first component housing units and a component mounting surface of a second substrate included in the plurality of first component housing units are opposed to each other, characterized in that the heat dissipating member contacts with the substrate of each of the plurality of first component housing units .
Heat transfer plate for a gasket type plate heat exchanger formed with a central patterned heat transferring area and two sets of openings and adapted to be stacked with similar heat transfer plates with gaskets sandwiched between each adjoining neighbouring heat transfer plates , wherein the heat transfer plate in the plate rim region formed outside the heat transferring area is adapted not to contact any of the adjoining neighbouring heat transfer plates , characterised in that the rim region is non-patterned and essentially flat, or plane, and wherein an outer rim portion of the heat transfer plate is bend relative to the plate rim region , the bend outer rim portion being adapted to contact an outer surface of a spacer sandwiched between neighbouring heat transfer plates when stacked.
A system for producing a material for a structural component, said system comprising: an apparatus for producing a fabric , said fabric including a plurality of reinforcement fibers; at least one printer for printing on the fabric; a winder for winding the fabric; and a cutter for making at least one slit in the fabric to separate the fabric into a plurality of rolls of the fabric, said plurality of rolls including a first roll of the fabric and a second roll of the fabric; wherein the printer is configured to print one or more first lines on the fabric on the first roll , said first lines indicating where the fabric on the first roll is to be separated into a plurality of discrete first pieces (531-1) for forming the structural component , and wherein the printer is configured to print one or more second lines on the fabric on the second roll , said second lines indicating where the fabric on the second roll is to be separated into a plurality of discrete second pieces (531-2) for forming the structural component . an apparatus for producing a fabric , said fabric including a plurality of reinforcement fibers; at least one printer for printing on the fabric; a winder for winding the fabric; and a cutter for making at least one slit in the fabric to separate the fabric into a plurality of rolls of the fabric, said plurality of rolls including a first roll of the fabric and a second roll of the fabric; wherein the printer is configured to print one or more first lines on the fabric on the first roll , said first lines indicating where the fabric on the first roll is to be separated into a plurality of discrete first pieces (531-1) for forming the structural component , and wherein the printer is configured to print one or more second lines on the fabric on the second roll , said second lines indicating where the fabric on the second roll is to be separated into a plurality of discrete second pieces (531-2) for forming the structural component .
A process for in situ synthesis of dispersion of ZnO nanoparticles in an oil additive composition, wherein the process comprises the steps of: a) dissolving a zinc salt in an alcoholic solvent and heating to 60- 120°C for 6-48h hours to obtain a suspension; b) centrifuging the suspension as obtained in step (a) and washing with deionized water to obtain a precipitate of layered base zinc LBZ; c) dispersing the layered base zinc precipitate as obtained step (b) in an alcohol and adding to base oil containing a dispersant; d) refluxing the mixture to obtain a colloidal suspension; evacuating the colloidal suspension at room temperature and heating at 60-90°C, followed by heating to 90-140°C for 45 to 120 minutes to obtain a dispersion of ZnO in the oil medium. a) dissolving a zinc salt in an alcoholic solvent and heating to 60- 120°C for 6-48h hours to obtain a suspension; b) centrifuging the suspension as obtained in step (a) and washing with deionized water to obtain a precipitate of layered base zinc LBZ; c) dispersing the layered base zinc precipitate as obtained step (b) in an alcohol and adding to base oil containing a dispersant; d) refluxing the mixture to obtain a colloidal suspension;
A thermal flow meter that measures a flow rate of a measurement target gas passing in a passage by transferring heat to the measurement target gas through a heat transfer surface in the passage, the thermal flow meter comprising: a semiconductor member in which a thin area constituting the heat transfer surface is provided; a heat generator that is provided in the thin area to heat the measurement target gas ; the thermal flow meter characterized by temperature difference detecting means for detecting at least one of a temperature difference in a flow direction of the measurement target gas in the thin area and in an upstream area of an area on an upstream side of the heat generator , and a temperature difference in the flow direction of the measurement target gas in the thin area and in a downstream area of an area on a downstream side of the heat generator ; heat capacity calculating means for calculating heat capacity in the thin area based on a temperature difference detected by the temperature difference detecting means; and thermal conductivity change amount estimating means for estimating a thermal conductivity change amount in the thin area based on the heat capacity calculated by the heat capacity calculating means. a semiconductor member in which a thin area constituting the heat transfer surface is provided; a heat generator that is provided in the thin area to heat the measurement target gas ; the thermal flow meter characterized by temperature difference detecting means for detecting at least one of a temperature difference in a flow direction of the measurement target gas in the thin area and in an upstream area of an area on an upstream side of the heat generator , and a temperature difference in the flow direction of the measurement target gas in the thin area and in a downstream area of an area on a downstream side of the heat generator ; heat capacity calculating means for calculating heat capacity in the thin area based on a temperature difference detected by the temperature difference detecting means; and thermal conductivity change amount estimating means for estimating a thermal conductivity change amount in the thin area based on the heat capacity calculated by the heat capacity calculating means.
Device for filling containers with a filling product, preferably in a beverage filling plant, wherein the device can be operated with different filling capacities as a measure of the containers to be filled per unit of time and has: at least one filling valve that is adapted to introduce the filling product into the containers at a variable flow rate, wherein the filling valve is preferably a proportional valve; and a controller that is in communication with the filling valve and is adapted to control the filling valve such that the filling product is introduced into a corresponding container during a filling process at at least one flow rate; characterised in that the controller is adapted to modify the flow rate in dependence on a change in the filling capacity and if the filling capacity is reduced to decrease the flow rate in dependence on the reduced filling capacity. at least one filling valve that is adapted to introduce the filling product into the containers at a variable flow rate, wherein the filling valve is preferably a proportional valve; and a controller that is in communication with the filling valve and is adapted to control the filling valve such that the filling product is introduced into a corresponding container during a filling process at at least one flow rate; characterised in that the controller is adapted to modify the flow rate in dependence on a change in the filling capacity and if the filling capacity is reduced to decrease the flow rate in dependence on the reduced filling capacity.