mhurhangee/patent-ind-claim-en huggingface dataset:
A transcatheter valve prosthesis and comprising: a stent having a compressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve, wherein the stent is self-expanding to return to the expanded configuration from the compressed configuration; a prosthetic valve component disposed within and secured to the stent ; and an anti-paravalvular leakage component coupled to and encircling an outer surface of the tubular stent , the anti-paravalvular leakage component including a plurality of self-expanding segments and an annular sealing element attached to the segments , the ends of the segments being attached to the outer surface of the tubular stent at attachment points, wherein the anti-paravalvular leakage component has an expanded configuration in which the segments curve radially away from the outer surface of the tubular stent , wherein the attachment points of the segments are positioned on peaks of diamond-shaped openings formed within the tubular stent . a stent having a compressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve, wherein the stent is self-expanding to return to the expanded configuration from the compressed configuration; a prosthetic valve component disposed within and secured to the stent ; and an anti-paravalvular leakage component coupled to and encircling an outer surface of the tubular stent , the anti-paravalvular leakage component including a plurality of self-expanding segments and an annular sealing element attached to the segments , the ends of the segments being attached to the outer surface of the tubular stent at attachment points, wherein the anti-paravalvular leakage component has an expanded configuration in which the segments curve radially away from the outer surface of the tubular stent , wherein the attachment points of the segments are positioned on peaks of diamond-shaped openings formed within the tubular stent .
A method comprising: receiving, at data processing hardware , a navigation command to navigate a robot to a mission destination within an environment of the robot ; generating, by the data processing hardware , a route specification for navigating the robot from a current location in the environment to the mission destination in the environment , the route specification comprising a series of route segments , each route segment in the series of route segments comprising: a goal region for the corresponding route segment ; a constraint region encompassing the goal region , the constraint region establishing boundaries for the robot to remain within while traversing toward the goal region and avoiding any obstacles within the constraint region ; and an initial path for the robot to follow while traversing the corresponding route segment ; characterized in : adjusting, by the data processing hardware , an amount of margin of distance between the robot and the obstacles within the constraint region based on a size of the constraint region . receiving, at data processing hardware , a navigation command to navigate a robot to a mission destination within an environment of the robot ; generating, by the data processing hardware , a route specification for navigating the robot from a current location in the environment to the mission destination in the environment , the route specification comprising a series of route segments , each route segment in the series of route segments comprising: a goal region for the corresponding route segment ; a constraint region encompassing the goal region , the constraint region establishing boundaries for the robot to remain within while traversing toward the goal region and avoiding any obstacles within the constraint region ; and an initial path for the robot to follow while traversing the corresponding route segment ; a goal region for the corresponding route segment ; a constraint region encompassing the goal region , the constraint region establishing boundaries for the robot to remain within while traversing toward the goal region and avoiding any obstacles within the constraint region ; and an initial path for the robot to follow while traversing the corresponding route segment ;
An aqueous dispersion of an isocyanate composition comprising: water; and the isocyanate composition dispersed in the water, wherein the isocyanate composition comprises at least one selected from the group consisting of a triisocyanate compound of the general formula (IV) and a diisocyanate compound of general formula (V), and the isocyanate composition has a volumne-average dispersion particle diameter of 200 nm to 8000 nm as determined in <Average dispersion particle diameter> in the description, in the general formula (IV), a plurality of Y 1 s each independently represent a single bond or a divalent C1-20 hydrocarbon group which may have at least one selected from the group consisting of an ester structure and an ether structure, the plurality of Y's is identical to or different from each other, and R 1 represents a hydrogen atom or a monovalent C1-12 hydrocarbon group, OCN-Y 2 -NCO (V) in the general formula (V), Y 2 represents a divalent C1-20 hydrocarbon group having an ester structure. wherein the isocyanate composition comprises at least one selected from the group consisting of a triisocyanate compound of the general formula (IV) and a diisocyanate compound of general formula (V), and the isocyanate composition has a volumne-average dispersion particle diameter of 200 nm to 8000 nm as determined in <Average dispersion particle diameter> in the description, in the general formula (IV), a plurality of Y 1 s each independently represent a single bond or a divalent C1-20 hydrocarbon group which may have at least one selected from the group consisting of an ester structure and an ether structure, the plurality of Y's is identical to or different from each other, and R 1 represents a hydrogen atom or a monovalent C1-12 hydrocarbon group, OCN-Y 2 -NCO (V) in the general formula (V), Y 2 represents a divalent C1-20 hydrocarbon group having an ester structure.
A method for notifying an authorization update, comprising: receiving, by a home network Proximity-based Services, ProSe, functional entity of an announcing terminal, a notification message from a ProSe application server, wherein the notification message is used for notifying the home network ProSe functional entity of the announcing terminal that authorization information changes (S302); and notifying, by the home network ProSe functional entity of the announcing terminal, a home network ProSe functional entity of a monitoring terminal that a ProSe code and/or filter corresponding to the announcing terminal become/becomes invalid or are/is updated (S304). receiving, by a home network Proximity-based Services, ProSe, functional entity of an announcing terminal, a notification message from a ProSe application server, wherein the notification message is used for notifying the home network ProSe functional entity of the announcing terminal that authorization information changes (S302); and notifying, by the home network ProSe functional entity of the announcing terminal, a home network ProSe functional entity of a monitoring terminal that a ProSe code and/or filter corresponding to the announcing terminal become/becomes invalid or are/is updated (S304).
Composite particles comprising: pellets comprising a fluorinated polymer having groups convertible to ion exchange groups, and a powder held on the surface of the pellets which comprises a polymer, wherein the powder has an average particle diameter of larger than 1 μm and at most 1,000 μm, the average particle diameter of the powder being a 50% particle diameter calculated from the volume based particle size distribution of a dispersion of the powder in isopropyl alcohol measured with a laser diffraction/scattering particle size distribution analyzer, wherein the ratio of the average particle diameter of the pellets to the average particle diameter of the powder is 2 to 4,500, the average particle diameter of the pellets being the arithmetic mean of the particle diameters of 20 pellets, the particle diameter of the pellet being the maximum distance between two parallel tangent planes to the pellet measured with a digimatic caliper, wherein both the fluorinated polymer and the polymer comprise units based on a fluoroolefin, and wherein the content of the powder is from 0.01 to 1 mass% relative to the amount of the pellets. pellets comprising a fluorinated polymer having groups convertible to ion exchange groups, and a powder held on the surface of the pellets which comprises a polymer, wherein the powder has an average particle diameter of larger than 1 μm and at most 1,000 μm, the average particle diameter of the powder being a 50% particle diameter calculated from the volume based particle size distribution of a dispersion of the powder in isopropyl alcohol measured with a laser diffraction/scattering particle size distribution analyzer, wherein the ratio of the average particle diameter of the pellets to the average particle diameter of the powder is 2 to 4,500, the average particle diameter of the pellets being the arithmetic mean of the particle diameters of 20 pellets, the particle diameter of the pellet being the maximum distance between two parallel tangent planes to the pellet measured with a digimatic caliper, wherein both the fluorinated polymer and the polymer comprise units based on a fluoroolefin, and wherein the content of the powder is from 0.01 to 1 mass% relative to the amount of the pellets.
A method on a mobile device, the method comprising: monitoring a first parent geofence and a plurality of first child geofences, each first child geofence being associated with the first parent geofence and geographically related to the first parent geofence by being within or partially within a geographic boundary of the first parent geofence; detecting a boundary crossing into a geographic area covered by a second parent geofence; in response to detection of the boundary crossing, loading a plurality of second child geofences, each second child geofence being associated with the second parent geofence and geographically related to the second parent geofence by being within or partially within a geographic boundary of the second parent geofence; and monitoring the second parent geofence and the plurality of second child geofences. monitoring a first parent geofence and a plurality of first child geofences, each first child geofence being associated with the first parent geofence and geographically related to the first parent geofence by being within or partially within a geographic boundary of the first parent geofence; detecting a boundary crossing into a geographic area covered by a second parent geofence; in response to detection of the boundary crossing, loading a plurality of second child geofences, each second child geofence being associated with the second parent geofence and geographically related to the second parent geofence by being within or partially within a geographic boundary of the second parent geofence; and monitoring the second parent geofence and the plurality of second child geofences.
A method of blending a fracturing fluid for delivery to a wellbore to be fractured, the method comprising the steps of providing: a turbine generator at a well site, wherein the turbine generator provides a dedicated source of electrical power; and at least one electric blender at the site, the electric blender comprising a blender tub that receives fluid from a fluid source and a fluid additive source , wherein the electric blender receives electric power from the source of electric power to effect blending of a fluid from the fluid source with a fluid additive from the fluid additive source to generate the fracturing fluid; and characterised in that the electric blender is operatively coupled to the turbine generator such that the dedicated source of electric power is adapted to supply electricity to the electric blender for producing the fracturing fluid, wherein the electric blender further comprises a first blender unit including a first inlet electric motor and a first electric discharge motor , and a second blender unit including a second inlet electric motor and a second electric discharge motor , and wherein the dedicated source of electric power supplies electricity to the first inlet electric motor, the second inlet electric motor, the first electric discharge motor, and the second electric discharge motor. a turbine generator at a well site, wherein the turbine generator provides a dedicated source of electrical power; and at least one electric blender at the site, the electric blender comprising a blender tub that receives fluid from a fluid source and a fluid additive source , wherein the electric blender receives electric power from the source of electric power to effect blending of a fluid from the fluid source with a fluid additive from the fluid additive source to generate the fracturing fluid; and characterised in that the electric blender is operatively coupled to the turbine generator such that the dedicated source of electric power is adapted to supply electricity to the electric blender for producing the fracturing fluid, wherein the electric blender further comprises a first blender unit including a first inlet electric motor and a first electric discharge motor , and a second blender unit including a second inlet electric motor and a second electric discharge motor , and a first blender unit including a first inlet electric motor and a first electric discharge motor , and a second blender unit including a second inlet electric motor and a second electric discharge motor , and wherein the dedicated source of electric power supplies electricity to the first inlet electric motor, the second inlet electric motor, the first electric discharge motor, and the second electric discharge motor.
Knife sharpening device comprising a horizontal base plate , at least one first sharpening steel unit with at least one first sharpening steel extending along a first sharpening axis (WA1) and arranged on an upper side (1.1) of the base plate and at least one second sharpening steel unit with at least one second sharpening steel extending along a second sharpening axis (WA2) and arranged on the upper side (1.1) of the base plate , wherein the first and the second sharpening steels are aligned to cross one another and cross at a crossing point (X), wherein each sharpening steel unit comprises a holding device for accommodating the sharpening steels in a holding manner, and wherein each holding device respectively comprises at least one socket and a rod holder connected to the socket, characterized in that the two sharpening steel units are slidably mounted on the horizontal base plate and are linearly displaceable in a horizontal movement direction (R1, R2), namely in such a way that during the sharpening of a knife, the sharpening steel units move toward one another in movement directions (R1, R2) due to a pressure acting on the crossing point (X) in the direction toward the base plate , wherein the first and second sharpening steel units are attached to the horizontal base plate by means of a respective slide guide, wherein at least one first linear guide rail and a second linear guide rail oriented parallel to the first guide rail are fixedly connected to the base plate on the upper side (1.1) of the horizontal base plate , and wherein at least one carriage interacting in a sliding manner with the first linear guide rail is provided at the socket of the first sharping steel unit and at least one carriage interacting in a sliding manner with the second linear guide rail is provided at the socket of the second sharping steel unit .
Actuator (V) extending along an axis (A), configured to be connected to a body of a motor vehicle and to an opening panel, the actuator (V) comprising co-axially: - a guiding pipe , - a spring cover tube , - a co-axially mounted housing tube surrounding the spring cover tube , - a helical spring radially located between said guiding pipe and said spring cover tube , the actuator (V) being movably mounted between a closed position in which the helical spring is compressed, and an open position in which the helical spring is at least partially relaxed, characterized in that said helical spring comprises at least a first right hand wound section and a second left hand wound section , the actuator further comprises a drive unit to drive a push rod longitudinally along the axis (A), whereby the push rod is configurable to push the opening panel between a closed position and an open position, whereby a first damper is located between the drive unit and the housing tube and a second damper is located on the side opposite to the first damper and connected to the drive unit . - a guiding pipe , - a spring cover tube , - a co-axially mounted housing tube surrounding the spring cover tube , - a helical spring radially located between said guiding pipe and said spring cover tube ,
A pneumatic tire comprising: a tire main body ; and at least one sound damper formed by affixing a foam material having a plate shape to an inner cavity surface of the tire main body to form a ring shape, a size of an inner circumferential surface of the foam material in a longitudinal direction, being smaller than that of an outer circumferential surface , such that the outer circumferential surface is toward an outer circumference, and end faces of the foam material in the longitudinal direction abut each other and are bonded, characterised in that the end faces are arranged to be parallel as they abut each other such that the end faces are fixed by an adhesive without creating a compression deformation. a tire main body ; and at least one sound damper formed by affixing a foam material having a plate shape to an inner cavity surface of the tire main body to form a ring shape, a size of an inner circumferential surface of the foam material in a longitudinal direction, being smaller than that of an outer circumferential surface , such that the outer circumferential surface is toward an outer circumference, and end faces of the foam material in the longitudinal direction abut each other and are bonded, characterised in that the end faces are arranged to be parallel as they abut each other such that the end faces are fixed by an adhesive without creating a compression deformation.
Pin comprising a metal body extending along a longitudinal insertion axis (Ox) and having a first end and a second end along the longitudinal axis (Ox), and an upper face and a lower face opposite the upper face , the pin comprising: - two convex portions each having an inclined inner wall and an inclined outer wall , the inclined walls of each convex portion forming a ridge and extending along the longitudinal axis (Ox), at least one ridge having on its lower face a protruding blade obtained by cutting and folding the metal body along the longitudinal axis (Ox); - a concave portion connecting the inner walls of each convex portion via a central surface ; - at least one blocking member . - two convex portions each having an inclined inner wall and an inclined outer wall , the inclined walls of each convex portion forming a ridge and extending along the longitudinal axis (Ox), at least one ridge having on its lower face a protruding blade obtained by cutting and folding the metal body along the longitudinal axis (Ox); - a concave portion connecting the inner walls of each convex portion via a central surface ; - at least one blocking member .
A method of performing a fit test on an actuator unit coupled to a user , the method comprising: determining a first configuration of the actuator unit while the actuator unit is in an un-actuating state and while the user is in a fit test position; actuating the actuator unit by increasing a force applied to the actuator unit until a maximum torque threshold is reached; determining a second configuration of a portion of the actuator unit generated in response to the actuating of the actuator unit ; determining a displacement of the portion of the actuator unit based at least in part on the difference between the first configuration and the second configuration; and determining, if the displacement is at or above a defined threshold, then the displacement corresponds to an improper fit of the actuator unit to the user . determining a first configuration of the actuator unit while the actuator unit is in an un-actuating state and while the user is in a fit test position; actuating the actuator unit by increasing a force applied to the actuator unit until a maximum torque threshold is reached; determining a second configuration of a portion of the actuator unit generated in response to the actuating of the actuator unit ; determining a displacement of the portion of the actuator unit based at least in part on the difference between the first configuration and the second configuration; and determining, if the displacement is at or above a defined threshold, then the displacement corresponds to an improper fit of the actuator unit to the user .
A method for manufacturing a foam molded body, comprising the steps of: an arranging step to arrange one sheet of a foam resin sheet between a first mold and a second mold , the foam resin sheet being formed by extruding and dangling a molten foam resin from a slit; an expanding step comprising performing a first suction step, a mold closening step, and a second suction step in this order; wherein the first suction step comprises subjecting the foam resin sheet to reduced pressure suction by the first mold , thereby shaping the foam resin sheet to follow a shape of a cavity of the first mold ; the mold closening step comprises closening the first mold and the second mold to each other to provide a gap (G) between the first mold and the second mold , the first and the second molds being provided with pinch off portions , respectively, the first and the second molds being closened until the pinch off portions come into contact to provide a closed space (S) surrounded by the pinch off portions , the gap (G) having a thickness larger than a thickness of the foam resin sheet ; and the second suction step comprises subjecting the foam resin sheet to reduced pressure suction by the first mold and the second mold , thereby expanding the foam resin sheet to have the thickness of the gap (G). an arranging step to arrange one sheet of a foam resin sheet between a first mold and a second mold , the foam resin sheet being formed by extruding and dangling a molten foam resin from a slit; an expanding step comprising performing a first suction step, a mold closening step, and a second suction step in this order; wherein the first suction step comprises subjecting the foam resin sheet to reduced pressure suction by the first mold , thereby shaping the foam resin sheet to follow a shape of a cavity of the first mold ; the mold closening step comprises closening the first mold and the second mold to each other to provide a gap (G) between the first mold and the second mold , the first and the second molds being provided with pinch off portions , respectively, the first and the second molds being closened until the pinch off portions come into contact to provide a closed space (S) surrounded by the pinch off portions , the gap (G) having a thickness larger than a thickness of the foam resin sheet ; and the second suction step comprises subjecting the foam resin sheet to reduced pressure suction by the first mold and the second mold , thereby expanding the foam resin sheet to have the thickness of the gap (G).