mhurhangee/ep-ind-claims huggingface dataset:
A non-combustible cigarette based on a flocking technology, comprising a cigarette paper layer, wherein the cigarette paper layer is a hollow cylindrical structure; an inner wall of the cigarette paper layer is provided with an adhesive layer, and tobacco filler granules, tobacco filler filaments or tobacco filler fibers are fixedly bonded on the adhesive layer; wherein when the tobacco filler granules are fixedly bonded on the adhesive layer, the tobacco filler granules are arranged circumferentially along the inner wall of the cigarette paper layer to form a tobacco filler granule layer; a number of the tobacco filler granule layer is at least one, and a number of the adhesive layer is at least one; wherein the interior of the cigarette paper layer is filled with the tobacco filler granules to form a hollow or solid structure; when the number of the tobacco filler granule layer is greater than one, the tobacco filler granule layer and the adhesive layer are alternately arranged in a radial direction of the cigarette, or when the tobacco filler filaments or tobacco filler fibers are fixedly bonded on the adhesive layer, the tobacco filler filaments or the tobacco filler fibers are arranged radially along a circumference of the inner wall of the cigarette paper layer, and numerous radial channels are formed in an interior of the cigarette paper layer; wherein the interior of the cigarette paper layer is filled with the tobacco filler filaments or the tobacco filler fibers to form a hollow or solid structure; one end of the tobacco filler filaments or the tobacco filler fibers is fixedly bonded with the adhesive layer, and the other end of the tobacco filler filaments or the tobacco filler fibers extends out of the adhesive layer. wherein when the tobacco filler granules are fixedly bonded on the adhesive layer, the tobacco filler granules are arranged circumferentially along the inner wall of the cigarette paper layer to form a tobacco filler granule layer; a number of the tobacco filler granule layer is at least one, and a number of the adhesive layer is at least one; wherein the interior of the cigarette paper layer is filled with the tobacco filler granules to form a hollow or solid structure; when the number of the tobacco filler granule layer is greater than one, the tobacco filler granule layer and the adhesive layer are alternately arranged in a radial direction of the cigarette, or when the tobacco filler filaments or tobacco filler fibers are fixedly bonded on the adhesive layer, the tobacco filler filaments or the tobacco filler fibers are arranged radially along a circumference of the inner wall of the cigarette paper layer, and numerous radial channels are formed in an interior of the cigarette paper layer; wherein the interior of the cigarette paper layer is filled with the tobacco filler filaments or the tobacco filler fibers to form a hollow or solid structure; one end of the tobacco filler filaments or the tobacco filler fibers is fixedly bonded with the adhesive layer, and the other end of the tobacco filler filaments or the tobacco filler fibers extends out of the adhesive layer.
A method for shaping a trajectory of a projectile comprising: obtaining input to a guidance and control autopilot system of the projectile, wherein the input comprises roll orientation with respect to gravity, and an estimate of a velocity of the projectile, and providing the input to at least one processor of the guidance and control autopilot system; determining an Inherent gravity bias, Gbias, produced by null guidance and control lateral rate control loops of the guidance and control autopilot system; determining a Desired Gbias by modeling and simulation to result in a near 0.0 airframe G loading during the final seconds before target impact; determining an Additional Gbias by subtracting the Inherent Gbias from the Desired Gbias, wherein the Additional Gbias is a bias added for trajectory shaping; applying the Additional Gbias to the Inherent Gbias by: calculating an additional rate command by dividing the Additional Gbias by the estimate of the velocity of the projectile; and determining a total rate command by the at least one processor of the guidance and control autopilot system from the additional rate command; whereby the guidance and control autopilot system is configured to guide the projectile to a target using the total rate command of the guidance and control autopilot system. obtaining input to a guidance and control autopilot system of the projectile, wherein the input comprises roll orientation with respect to gravity, and an estimate of a velocity of the projectile, and providing the input to at least one processor of the guidance and control autopilot system; determining an Inherent gravity bias, Gbias, produced by null guidance and control lateral rate control loops of the guidance and control autopilot system; determining a Desired Gbias by modeling and simulation to result in a near 0.0 airframe G loading during the final seconds before target impact; determining an Additional Gbias by subtracting the Inherent Gbias from the Desired Gbias, wherein the Additional Gbias is a bias added for trajectory shaping; applying the Additional Gbias to the Inherent Gbias by: calculating an additional rate command by dividing the Additional Gbias by the estimate of the velocity of the projectile; and determining a total rate command by the at least one processor of the guidance and control autopilot system from the additional rate command; whereby the guidance and control autopilot system is configured to guide the projectile to a target using the total rate command of the guidance and control autopilot system. calculating an additional rate command by dividing the Additional Gbias by the estimate of the velocity of the projectile; and determining a total rate command by the at least one processor of the guidance and control autopilot system from the additional rate command; whereby the guidance and control autopilot system is configured to guide the projectile to a target using the total rate command of the guidance and control autopilot system.
A brush for delivering a glutinous substance to a workpiece from an end-effector, the brush comprising: a body, having a rotational axis and comprising a first channel that comprises an inlet and a first outlet, wherein the inlet is coaxial with the rotational axis and the first outlet is offset from the rotational axis; tufts, extending from the body and each comprising a tip and at least one bristle; and a first tube, communicatively coupled with the first outlet of the first channel of the body, wherein the tufts comprise a first plurality of tufts and a second plurality of tufts; the second plurality of tufts comprises a first group of tufts and a second group of tufts; and the second plurality of tufts extends from the body at locations on the body that lie along a curvilinear path, which curvilinear path is a spiral path. a body, having a rotational axis and comprising a first channel that comprises an inlet and a first outlet, wherein the inlet is coaxial with the rotational axis and the first outlet is offset from the rotational axis; tufts, extending from the body and each comprising a tip and at least one bristle; and a first tube, communicatively coupled with the first outlet of the first channel of the body, wherein the tufts comprise a first plurality of tufts and a second plurality of tufts; the second plurality of tufts comprises a first group of tufts and a second group of tufts; and the second plurality of tufts extends from the body at locations on the body that lie along a curvilinear path, which curvilinear path is a spiral path.
A method for producing a cleaning roller, in particular for floor cleaning equipment, comprising a roller body and a cleaning assembly arranged on the roller body, wherein the roller body has a core and a jacket arranged around the core, characterized in that the roller body is produced in a multi-stage injection molding process, wherein the core is produced in a first injection mold with a first polymeric material and wherein the jacket is produced by means of at least a subsequent overmolding of the core in a second injection mold with a second polymeric material, that at least one drive element is attached to the core and that the drive element is subsequently captively held in the roller body by means of the jacket, that the core has at least one holding element for the rotationally rigid coupling to the drive element and that the holding element is a holding part of a different material, which is placed into the core.
A method for customizing an application for a user, comprising: receiving from one or more sensors associated with a smart device user state information about a user of the smart device; storing the user state information using an access control mechanism that only allows access upon express authorization of the user; and retrieving the stored user state information after an application being executed on or through the smart device has been provided with the express authorization from the user; and adapting functionality of the application based at least in part on the user state information that is retrieved, characterised in that the access control mechanism includes a block chain system, and storing the user state information includes storing the user state information using a plurality of locked transactions established by the block chain system, each locked transaction preventing retrieval of the stored user state information unless one or more prescribed input values are received, and one of the locked transactions being locked with a time-based token that only allows the locked transaction to be unlocked for a prescribed period of time. receiving from one or more sensors associated with a smart device user state information about a user of the smart device; storing the user state information using an access control mechanism that only allows access upon express authorization of the user; and retrieving the stored user state information after an application being executed on or through the smart device has been provided with the express authorization from the user; and adapting functionality of the application based at least in part on the user state information that is retrieved, characterised in that
Absorbent medical body (10; 20; 30) for removing wound fluids from human and/or animal body cavities comprising a material (12; 22; 32) which can be removed upon contact with a biocompatible liquid, wherein the absorbent body (10; 20; 30) comprises a drainage tube (14; 24; 34), characterized in that the material (12; 22; 32) is provided in a freeze-dried form and holds the absorbent body (10; 20; 30) together in a compressed form and the absorbent body (10; 20; 30) is formed from polyurethane, polyurethane ether or polyurethane ester.
A receiver assembly comprising 1) a membrane structure comprising a frame portion and a moveable diaphragm, wherein one or more openings exist between the frame portion and the moveable diaphragm of the membrane structure, 2) an assembly housing being secured to the membrane structure, and 3) an acoustical venting opening connecting an interior volume of the receiver assembly to an exterior volume outside assembly housing, said acoustical venting opening forming an acoustical passage through the membrane structure characterized in that the frame portion and moveable diaphragm of the membrane structure form an integrated structure being made of the same material. 1) a membrane structure comprising a frame portion and a moveable diaphragm, wherein one or more openings exist between the frame portion and the moveable diaphragm of the membrane structure, 2) an assembly housing being secured to the membrane structure, and 3) an acoustical venting opening connecting an interior volume of the receiver assembly to an exterior volume outside assembly housing, said acoustical venting opening forming an acoustical passage through the membrane structure
A user equipment comprising: a first determining unit configured to determine whether the user equipment needs to transmit a physical random access channel, PRACH, signal in a secondary serving cell in parallel with a sounding reference symbol, SRS, signal transmission in a same orthogonal frequency division multiplexing symbol of a different serving cell; a first processing unit configured to drop the SRS signal when a determination result of the first determining unit is positive, and if total transmission power exceeds maximum output power of the user equipment; a second determining unit configured to determine whether the user equipment needs to transmit the PRACH signal in a secondary serving cell and transmit a physical uplink channel signal in other serving cell(s) within the same subframe; and a second processing unit configured to adjust transmission power of the physical uplink channel signal according to a predefined priority order of the PRACH signal and the physical uplink channel signal when it is determined positive by the second determining unit until an adjusted total transmission power is less than or equal to the maximum output power of the user equipment. a first determining unit configured to determine whether the user equipment needs to transmit a physical random access channel, PRACH, signal in a secondary serving cell in parallel with a sounding reference symbol, SRS, signal transmission in a same orthogonal frequency division multiplexing symbol of a different serving cell; a first processing unit configured to drop the SRS signal when a determination result of the first determining unit is positive, and if total transmission power exceeds maximum output power of the user equipment; a second determining unit configured to determine whether the user equipment needs to transmit the PRACH signal in a secondary serving cell and transmit a physical uplink channel signal in other serving cell(s) within the same subframe; and a second processing unit configured to adjust transmission power of the physical uplink channel signal according to a predefined priority order of the PRACH signal and the physical uplink channel signal when it is determined positive by the second determining unit until an adjusted total transmission power is less than or equal to the maximum output power of the user equipment.
A valve construction for a PET keg comprising a valve casing with an annular shoulder surrounding a central opening or hole of the valve casing, the valve casing comprising means of connection with a keg neck, a hollow stem, a valve element, a spring, an annular flange; wherein the first end of the stem is open and the second end of the stem is closed with an annular shoulder protruding from the stem; the stem having at least one window therein; wherein the valve element is installed surrounding the stem and is slidable along it, wherein the valve element defines a hole therein surrounded by an annular recess that is configured for engaging with the annular shoulder of the stem and wherein the annular shoulder of the valve casing is configured for engaging with the valve element; and wherein the spring is installed between the valve element and the annular flange; characterized in that the valve casing is made in the form of a mushroom comprising a mushroom stem of cylindrical surface and is connected to the annular flange by a threaded connection; in that gas flow openings are provided at the bottom of the annular flange; in that an annular gasket is provided between the annular flange and the cylindrical surface of the mushroom stem of the valve casing, said annular gasket sealing the connection of the valve casing and the neck of said PET keg; in that the valve element is made of a polymeric material with 40-60 Shore hardness; and in that, when overpressure in a PET keg is above a maximum permissible value, the valve element is irretrievably pressed out and protrudes above the end surface of the valve casing, thereby forming an internal channel for relieving overpressure and preventing the attachment of a dispensing head to the valve construction.
A method of apportioning desired video processing between a video source device and a video sink device, the method comprising, at one of said devices: presenting a user interface comprising at least one user interface control (1002, 1004, 1006, 1016) for specifying one or more video processing apportionment criteria; receiving said one or more specified video processing apportionment criteria, the specified video processing apportionment criteria comprising conserving power at either or both of said video source device and video sink device; based upon an indication (31, 33) of video processing algorithms of which the other of said video source device and said video sink device is capable and an indication (33, 31) of video processing algorithms of which said one device is capable: identifying a set of video processing algorithms for achieving desired video processing; and classifying the video processing algorithms of said set into a first subset of video processing algorithms for performance by said other device and a second subset of video processing algorithms for performance by said one device, wherein said classifying is performed in accordance with one or more video processing apportionment criteria; sending at least one command for causing said other device to effect the first subset of video processing algorithms; and configuring said one device to effect the second subset of video processing algorithms. presenting a user interface comprising at least one user interface control (1002, 1004, 1006, 1016) for specifying one or more video processing apportionment criteria; receiving said one or more specified video processing apportionment criteria, the specified video processing apportionment criteria comprising conserving power at either or both of said video source device and video sink device; based upon an indication (31, 33) of video processing algorithms of which the other of said video source device and said video sink device is capable and an indication (33, 31) of video processing algorithms of which said one device is capable: identifying a set of video processing algorithms for achieving desired video processing; and classifying the video processing algorithms of said set into a first subset of video processing algorithms for performance by said other device and a second subset of video processing algorithms for performance by said one device, wherein said classifying is performed in accordance with one or more video processing apportionment criteria; identifying a set of video processing algorithms for achieving desired video processing; and classifying the video processing algorithms of said set into a first subset of video processing algorithms for performance by said other device and a second subset of video processing algorithms for performance by said one device, wherein said classifying is performed in accordance with one or more video processing apportionment criteria; sending at least one command for causing said other device to effect the first subset of video processing algorithms; and configuring said one device to effect the second subset of video processing algorithms.
A surgical tool, comprising: a shaft; an end effector; and a firing drive, comprising: a rotatable input drive comprising a threaded transmission portion, wherein said input drive is rotatable in a first direction and a second direction; and a flexible output shaft comprising a thread operably engaged with said threaded transmission portion, wherein said flexible output shaft comprises a longitudinal axis, wherein said flexible output shaft is constrained from revolving about said longitudinal axis, wherein said rotatable input drive is configured to translate said flexible output shaft toward said end effector when said rotatable input drive is rotated in said first direction, and wherein said rotatable input drive is configured to translate said flexible output shaft away from said end effector when said rotatable input drive is rotated in said second direction; wherein said flexible output shaft comprises a body, and wherein said thread extends around said body, wherein said body comprises a longitudinal aperture extending therethrough. a shaft; an end effector; and a firing drive, comprising: a rotatable input drive comprising a threaded transmission portion, wherein said input drive is rotatable in a first direction and a second direction; and a flexible output shaft comprising a thread operably engaged with said threaded transmission portion, wherein said flexible output shaft comprises a longitudinal axis, wherein said flexible output shaft is constrained from revolving about said longitudinal axis, wherein said rotatable input drive is configured to translate said flexible output shaft toward said end effector when said rotatable input drive is rotated in said first direction, and wherein said rotatable input drive is configured to translate said flexible output shaft away from said end effector when said rotatable input drive is rotated in said second direction; a rotatable input drive comprising a threaded transmission portion, wherein said input drive is rotatable in a first direction and a second direction; and a flexible output shaft comprising a thread operably engaged with said threaded transmission portion, wherein said flexible output shaft comprises a longitudinal axis, wherein said flexible output shaft is constrained from revolving about said longitudinal axis, wherein said rotatable input drive is configured to translate said flexible output shaft toward said end effector when said rotatable input drive is rotated in said first direction, and wherein said rotatable input drive is configured to translate said flexible output shaft away from said end effector when said rotatable input drive is rotated in said second direction; wherein said flexible output shaft comprises a body, and wherein said thread extends around said body, wherein said body comprises a longitudinal aperture extending therethrough.
A nitro group-containing ether compound of the formula. (wherein R 1, R 2 and R 6 are same or different and are each alkyl, aryl, substituted aryl, aralkyl, substituted aralkyl or aromatic heterocyclic group, and R 1 and R 2 are not methyl simultaneously)