mhurhangee/patent-ind-claim-en huggingface dataset:
A combustor comprising: a combustion chamber having a fuel injection portion; and a heat shield panel bordering the combustion chamber , the heat shield panel including a substrate and a multi-layered coating supported on the substrate ; wherein the multi-layered coating includes alternating layers of different ceramic material compositions; characterized in that the alternating layers are alternating layers of a nitride ceramic composition and an oxide ceramic composition; or the alternating layers are different compositions of stabilized hafnia. a combustion chamber having a fuel injection portion; and a heat shield panel bordering the combustion chamber , the heat shield panel including a substrate and a multi-layered coating supported on the substrate ; wherein the multi-layered coating includes alternating layers of different ceramic material compositions; characterized in that the alternating layers are alternating layers of a nitride ceramic composition and an oxide ceramic composition; or the alternating layers are different compositions of stabilized hafnia.
Cage segment for a segment cage, in particular for large rolling bearings, wherein the cage segment forms a pocket which is suitable for receiving at least one rolling body , wherein the cage segment has at least one clearance in which an insert element is received, wherein the insert element is captively fastened in the clearance , characterized in that the cage segment is assembled from at least one sheet-metal component by way of at least one joint .
A polyaxial bone anchor assembly having a shank having a body integral with an upwardly extending upper capture structure , a receiver having a base with a pair of integral opposed upstanding arms extending upwardly from the base to form a cradle and to define a channel between the arms, a cavity communicating with the channel, a retainer having a non-expanded configuration and an expanded configuration, and a compression or pressure insert ; the polyaxial bone anchor assembly being characterized in that : a) the receiver cavity has an upper chamber and lower chamber having a smaller diameter than a diameter of the upper chamber; b) the retainer being smaller in diameter than the cavity upper chamber in the non-expanded configuration, the retainer being configured to be pushed to the upper chamber during assembly when the shank upper capture structure is uploaded into the receiver cavity, and the retainer being configured to expand thereafter to the expanded configuration in the upper chamber, so as to receive the shank upper capture structure therethrough and capture the shank capture structure by returning to the non-expanded configuration in the lower chamber. a) the receiver cavity has an upper chamber and lower chamber having a smaller diameter than a diameter of the upper chamber; b) the retainer being smaller in diameter than the cavity upper chamber in the non-expanded configuration, the retainer being configured to be pushed to the upper chamber during assembly when the shank upper capture structure is uploaded into the receiver cavity, and the retainer being configured to expand thereafter to the expanded configuration in the upper chamber, so as to receive the shank upper capture structure therethrough and capture the shank capture structure by returning to the non-expanded configuration in the lower chamber.
An aerosol generating article comprising: an aerosol generating substrate comprising nicotine and comprising at least 10% by weight of an aerosol former; and a wrapper disposed about the aerosol generating substrate, the wrapper comprises a paper layer comprising a surface treatment comprising polyvinyl alcohol and having a water contact angle of at least 30 degrees. an aerosol generating substrate comprising nicotine and comprising at least 10% by weight of an aerosol former; and a wrapper disposed about the aerosol generating substrate, the wrapper comprises a paper layer comprising a surface treatment comprising polyvinyl alcohol and having a water contact angle of at least 30 degrees.
Method for charging and/or discharging an energy store with a current I 0 , wherein the energy store has at least one cell block having a number J of series-connected battery cells , at least some of the battery cells of which may have different efficiencies η N , where 1 ≤ N ≤ J, with the following method steps: - determining the battery cell having the lowest efficiency η min , - adjusting the efficiency η N of all the other battery cells to this lowest efficiency η min such that for the adjusted efficiency η N ' of the battery cells applies: η N ' = η min . - determining the battery cell having the lowest efficiency η min , - adjusting the efficiency η N of all the other battery cells to this lowest efficiency η min such that for the adjusted efficiency η N ' of the battery cells applies: η N ' = η min .
A packaging assembly for an applicator configured for loading a buttress assembly onto an end effector of a surgical stapler, wherein the packaging assembly comprises: (a) an outer tray ; (b) a pouch having a top layer , a bottom layer , and an interior between the top and bottom layers , wherein the top layer and the bottom layer are connectable to form a selective hermetic seal around the interior , and wherein the bottom layer of the pouch is configured to be contacted by the outer tray , which is configured to protect the bottom layer of the pouch from damage by fitting closely against the bottom layer of the pouch ; (c) an inner tray configured to be positionable within the interior of the pouch such that the bottom layer of the pouch separates the inner tray from the outer tray ; and (d) a desiccant material , wherein the inner tray is configured to selectively retain the desiccant material , wherein the desiccant material is configured to absorb any moisture within the interior of the pouch . (a) an outer tray ; (b) a pouch having a top layer , a bottom layer , and an interior between the top and bottom layers , wherein the top layer and the bottom layer are connectable to form a selective hermetic seal around the interior , and wherein the bottom layer of the pouch is configured to be contacted by the outer tray , which is configured to protect the bottom layer of the pouch from damage by fitting closely against the bottom layer of the pouch ; (c) an inner tray configured to be positionable within the interior of the pouch such that the bottom layer of the pouch separates the inner tray from the outer tray ; and (d) a desiccant material , wherein the inner tray is configured to selectively retain the desiccant material , wherein the desiccant material is configured to absorb any moisture within the interior of the pouch .
Polymer composition including polymers corresponding to the formula (I) below: [R-O(-CH(CH 3 )-CH 2 O-) n (CH 2 -CH 2 O-) p -] 1+x P(=O)(OH) 2-x (I) where: R is a linear or branched, saturated or unsaturated hydrocarbon-based group comprising from 8 to 12 carbon atoms n is an integer or decimal number between 6 and 20 p is an integer or decimal number between 4 and 25 x is a number between 0 and 1, in particular between 0.1 and 0.9. R is a linear or branched, saturated or unsaturated hydrocarbon-based group comprising from 8 to 12 carbon atoms n is an integer or decimal number between 6 and 20 p is an integer or decimal number between 4 and 25 x is a number between 0 and 1, in particular between 0.1 and 0.9.
Method for displaying content of a display device on a second display device , having the steps of: = capturing a selection means in a predefined spatial region in front of the first display device , and, as a reaction thereto, - displaying a content displayed on the first display device on the second display device , characterized by - fixing the content displayed on the second display device until the selection means has undergone a predefined minimum position change. - displaying a content displayed on the first display device on the second display device , characterized by - fixing the content displayed on the second display device until the selection means has undergone a predefined minimum position change.
A method for calibrating a work machine comprising a main body , a boom configured to drive with respect to the main body , a work tool connecting to the boom , the work tool being configured to drive with respect to the boom , an actuator connecting to the main body and the work tool respectively, the actuator being configured to drive the work tool , and a sub-link configured to transmit drive of the actuator to the work tool , wherein the method is characterized by : an output step (S12, S14) of outputting a detection value (V1', V2') for detecting an angle of the sub-link with respect to the boom in a predetermined posture of the boom and a work tool posture which are specified; a conversion step (S15) of converting the detection value (V1', V2') as a measurement angle (θ1', θ2') of the sub-link with respect to the boom based on a conversion value (T1); and a calibration step (S16) of calibrating the conversion value (T1) based on a relationship between the measurement angle (θ1', θ2') and an actual angle (θ1, θ2) in the work tool posture which is specified, wherein there are a plurality of work tool postures, in the output step (S12, S14) a detection value (V1', V2') for detecting the angle of the sub-link with respect to the boom in each of the plurality of work tool postures is output, the plurality of work tool postures include a dump posture and a tilt posture, in the output step (S12, S14) a detection value for detecting the angle of the sub-link with respect to the boom in each of the dump posture and the tilt posture is output, and the dump posture and the tilt posture are postures at a mechanism limit due to the sub-link or an operation limit of the actuator . an output step (S12, S14) of outputting a detection value (V1', V2') for detecting an angle of the sub-link with respect to the boom in a predetermined posture of the boom and a work tool posture which are specified; a conversion step (S15) of converting the detection value (V1', V2') as a measurement angle (θ1', θ2') of the sub-link with respect to the boom based on a conversion value (T1); and a calibration step (S16) of calibrating the conversion value (T1) based on a relationship between the measurement angle (θ1', θ2') and an actual angle (θ1, θ2) in the work tool posture which is specified, wherein there are a plurality of work tool postures, in the output step (S12, S14) a detection value (V1', V2') for detecting the angle of the sub-link with respect to the boom in each of the plurality of work tool postures is output, the plurality of work tool postures include a dump posture and a tilt posture, in the output step (S12, S14) a detection value for detecting the angle of the sub-link with respect to the boom in each of the dump posture and the tilt posture is output, and the dump posture and the tilt posture are postures at a mechanism limit due to the sub-link or an operation limit of the actuator .
Method for operating a power converter , preferably a solar inverter, for feeding a load current ( I load ) into a grid , including the steps of a) determining the load current ( I load ) , b) monitoring an output voltage ( U out ) of the power converter , c) controlling the load current ( I load ) , to avoid that the output voltage ( U out ) exceeds a voltage limit ( U out,lim ), d) wherein controlling the load current ( I load ) includes the step of defining limiting characteristics of the load current ( I load ) in dependency of the output voltage ( U out ), characterized in that : e) the limiting characteristics is equal to the nominal load current ( I nom ), below a first output voltage level ( U 100% ), f) has a negative gradient between a first output voltage level ( U 100% ) and a second output voltage level ( U 0% ), g) covers a load current value range between zero and the nominal load current ( I nom ) and h) is zero above the second output voltage level ( U 0% ), i) wherein the first output voltage level ( U 100% ) is smaller than the second output voltage level ( U 0% ) and j) the second output voltage level ( U 0% ) is equal or smaller than a maximum output voltage ( U out,max ) . a) determining the load current ( I load ) , b) monitoring an output voltage ( U out ) of the power converter , c) controlling the load current ( I load ) , to avoid that the output voltage ( U out ) exceeds a voltage limit ( U out,lim ), d) wherein controlling the load current ( I load ) includes the step of defining limiting characteristics of the load current ( I load ) in dependency of the output voltage ( U out ), characterized in that : e) the limiting characteristics is equal to the nominal load current ( I nom ), below a first output voltage level ( U 100% ), f) has a negative gradient between a first output voltage level ( U 100% ) and a second output voltage level ( U 0% ), g) covers a load current value range between zero and the nominal load current ( I nom ) and h) is zero above the second output voltage level ( U 0% ), i) wherein the first output voltage level ( U 100% ) is smaller than the second output voltage level ( U 0% ) and j) the second output voltage level ( U 0% ) is equal or smaller than a maximum output voltage ( U out,max ) .
A coded zoom knob for detecting the rotation of a zoom drive shaft of a zoom system of a microscope , comprising a stator and a rotor rotatable in relation to the stator , the rotor being adapted to be mounted to the zoom drive shaft , and the stator comprising a rotation sensor for sensing a rotation of the rotor , wherein the coded zoom knob is suitable for replacing a conventional zoom knob, and wherein the stator is adapted to be fitted on the zoom drive shaft axis of a housing of the microscope and wherein the stator comprises a cap forming a first axial end of the zoom drive shaft axis of the microscope housing . a stator and a rotor rotatable in relation to the stator , the rotor being adapted to be mounted to the zoom drive shaft , and the stator comprising a rotation sensor for sensing a rotation of the rotor , wherein the coded zoom knob is suitable for replacing a conventional zoom knob, and wherein the stator is adapted to be fitted on the zoom drive shaft axis of a housing of the microscope and wherein the stator comprises a cap forming a first axial end of the zoom drive shaft axis of the microscope housing .
A reclining device for holding a seatback to a seat cushion in a tiltable manner and fixing the seatback at a certain tilt angle, the reclining device comprising: a pair of reclining mechanisms to be arranged on both sides of a seat in a width direction thereof and each having an internal gear to be a fixedly attached to a frame of one of the seat cushion and the seatback and a cam arranged in juxtaposition with the internal gear in a thickness direction of the internal gear; a connecting rod extending in the width direction of the seat, coaxially coupled to the cam of each of the reclining mechanisms, and being rotatable together with the cam; and a resin bush having a cylindrical shape formed with a fit hole to receive a fitting part formed on the connecting rod at a portion adjacent to each end of the connecting rod, wherein the cam has a rod insertion hole for allowing the end of the connecting rod to be inserted therein, the internal gear has a bush insertion hole for allowing the resin bush to be inserted therein at a center position of the internal gear, the fitting part adjacent to the end of the connecting rod fits in the fit hole of the resin bush, and the end the connecting rod protrudes outward of the resin bush, and the resin bush is placed in the bush insertion hole in contact with an inner surface of the bush insertion hole of the internal gear to retain the connecting rod at such a position to the cam that a clearance exists between an inner surface of the rod insertion hole of the cam and an outer surface of the connecting rod . a pair of reclining mechanisms to be arranged on both sides of a seat in a width direction thereof and each having an internal gear to be a fixedly attached to a frame of one of the seat cushion and the seatback and a cam arranged in juxtaposition with the internal gear in a thickness direction of the internal gear; a connecting rod extending in the width direction of the seat, coaxially coupled to the cam of each of the reclining mechanisms, and being rotatable together with the cam; and a resin bush having a cylindrical shape formed with a fit hole to receive a fitting part formed on the connecting rod at a portion adjacent to each end of the connecting rod, wherein the cam has a rod insertion hole for allowing the end of the connecting rod to be inserted therein, the internal gear has a bush insertion hole for allowing the resin bush to be inserted therein at a center position of the internal gear, the fitting part adjacent to the end of the connecting rod fits in the fit hole of the resin bush, and the end the connecting rod protrudes outward of the resin bush, and the resin bush is placed in the bush insertion hole in contact with an inner surface of the bush insertion hole of the internal gear to retain the connecting rod at such a position to the cam that a clearance exists between an inner surface of the rod insertion hole of the cam and an outer surface of the connecting rod .
A method of approximating the topography of a surface of a printer table for an ink jet printer to a required topography, the method comprising: taking measurements representative of the topography of the surface ; determining a thickness profile of a shim layer comprising a thickness at a plurality of positions on the surface to approximate the topography of the surface to the required topography based on the measurements; and providing the shim layer on the surface, comprising: printing a plurality of layers of UV-curable ink from a print head of the ink jet printer to provide the determined thickness of the shim layer at each of the plurality of positions; and curing each successive layer of the ink; wherein an upper surface of the shim layer is arranged to provide a uniform gap to the print head. taking measurements representative of the topography of the surface ; determining a thickness profile of a shim layer comprising a thickness at a plurality of positions on the surface to approximate the topography of the surface to the required topography based on the measurements; and providing the shim layer on the surface, comprising: printing a plurality of layers of UV-curable ink from a print head of the ink jet printer to provide the determined thickness of the shim layer at each of the plurality of positions; and curing each successive layer of the ink; printing a plurality of layers of UV-curable ink from a print head of the ink jet printer to provide the determined thickness of the shim layer at each of the plurality of positions; and curing each successive layer of the ink; wherein an upper surface of the shim layer is arranged to provide a uniform gap to the print head.
A composition useful for treating hydraulic fracturing fluids comprising a plurality of discrete carbon nanotubes, wherein the discrete carbon nanotubes comprise an interior and exterior surface, the interior surface comprising an interior surface oxidized species content and the exterior surface comprising an exterior surface oxidized species content, and at least one degradative molecule for degrading a hydraulic fracturing fluid, wherein the degradative molecule is attached on the interior or exterior surface of the plurality of discrete carbon nanotubes, the oxidized species is selected from the group consisting of carboxylic acids, phenols, aldehydes, ketones, hydroxyl, ether linkages, and combinations thereof, the interior surface oxidized species content is from 0.01 to 3 wt.% relative to carbon nanotube weight, wherein the interior surface oxidized species content differs from the exterior surface oxidized species content by greater than 85 %, and wherein the interior surface oxidized species content is less than the exterior surface oxidized species content.
A tamper-evident closure for a container neck including a retention bead, the closure comprising: a screw threaded cap comprising a top plate and a sidewall depending from the periphery thereof; and a retaining ring arranged beneath the sidewall; and a plurality of bridges connecting the retaining ring to the sidewall, wherein at least one of the bridges is frangible, and wherein only one of the bridges is non-frangible whereby to form a strong, non-frangible link between the ring and the sidewall, wherein the non-frangible link is adapted such that: when the cap is unscrewed and lifts up, the ring is pulled up locally and the presence of the non-frangible link causes part of the ring t2t to be pulled up and over the retention bead in use, and when the screw threaded cap is disengaged from the neck it can be flipped over, characterised in that the ring and the non-frangible link are adapted such that flipping of the cap causes localised regions of the ring on either side of the non-frangible link to twist. for a container neck including a retention bead, the closure comprising: a screw threaded cap comprising a top plate and a sidewall depending from the periphery thereof; and a retaining ring arranged beneath the sidewall; and a plurality of bridges connecting the retaining ring to the sidewall, wherein at least one of the bridges is frangible, and wherein only one of the bridges is non-frangible whereby to form a strong, non-frangible link between the ring and the sidewall, wherein the non-frangible link is adapted such that: when the cap is unscrewed and lifts up, the ring is pulled up locally and the presence of the non-frangible link causes part of the ring t2t to be pulled up and over the retention bead in use, and when the screw threaded cap is disengaged from the neck it can be flipped over, when the cap is unscrewed and lifts up, the ring is pulled up locally and the presence of the non-frangible link causes part of the ring t2t to be pulled up and over the retention bead in use, and when the screw threaded cap is disengaged from the neck it can be flipped over, characterised in that the ring and the non-frangible link are adapted such that flipping of the cap causes localised regions of the ring on either side of the non-frangible link to twist.
A terminal device configured to communicate with a base station device , the terminal device comprising: a control unit configured to set one or more second TTI settings in accordance with control information from the base station device ; and a receiving unit configured to monitor a first PDCCH corresponding to a first TTI and a second PDCCH corresponding to a second TTI of a time length shorter than the first TTI and receive a second PDSCH mapped to the second TTI in a case in which the second TTI settings are set, and monitor the first PDCCH and receive a first PDSCH mapped to the first TTI in a case in which the second TTI settings are not set; characterized in that candidates for the monitored first PDCCH are different between a case in which the second TTI settings are set and a case in which the second TTI settings are not set. a control unit configured to set one or more second TTI settings in accordance with control information from the base station device ; and a receiving unit configured to monitor a first PDCCH corresponding to a first TTI and a second PDCCH corresponding to a second TTI of a time length shorter than the first TTI and receive a second PDSCH mapped to the second TTI in a case in which the second TTI settings are set, and monitor the first PDCCH and receive a first PDSCH mapped to the first TTI in a case in which the second TTI settings are not set; characterized in that candidates for the monitored first PDCCH are different between a case in which the second TTI settings are set and a case in which the second TTI settings are not set.