mhurhangee/patent-ind-claim-en huggingface dataset:
A circuit for detecting a floating state of a node, comprising: a node (N) connected, in operation, for having two operating states including a low impedance state where it is connected to a first power supply line (Vdd) through a low impedance path (S), and a floating state where no element establishes its voltage; a first MOS transistor (M1) of a first conductivity type connected between the node (N) and a second supply line (Vss); and a second MOS transistor (M2) of a conductivity type complementary to the first conductivity type, controlled by the node (N) and connected between the gate of the first transistor (M1) and the first supply line (Vdd); wherein it comprises a third MOS transistor (M3) of the first conductivity type, controlled by the node (N) and connected between the gate of the first transistor (M1) and the second supply line (Vss). a node (N) connected, in operation, for having two operating states including a low impedance state where it is connected to a first power supply line (Vdd) through a low impedance path (S), and a floating state where no element establishes its voltage; a first MOS transistor (M1) of a first conductivity type connected between the node (N) and a second supply line (Vss); and a second MOS transistor (M2) of a conductivity type complementary to the first conductivity type, controlled by the node (N) and connected between the gate of the first transistor (M1) and the first supply line (Vdd); wherein it comprises a third MOS transistor (M3) of the first conductivity type, controlled by the node (N) and connected between the gate of the first transistor (M1) and the second supply line (Vss).
A cellulose composite resin comprising a base resin, a cellulose fiber, a dispersing agent, and a rubber-containing polymer, wherein an α-cellulose content in the cellulose fiber is 50% by mass or more and less than 80% by mass.
A method for receiving a downlink signal by a User Equipment, UE, in a wireless communication system, the method comprising: receiving a single downlink control information, DCI; and based on the single DCI, receiving a first downlink signal and a second downlink signal based on a same transport block, TB, characterized by , the single DCI includes information representing i) a first quasi co-location, QCL, relationship between one or more reference signals and a first demodulation-reference signal, DM-RS, of the first downlink signal and ii) a second QCL relationship between one or more reference signals and a second DM-RS of the second downlink signal, and wherein the first downlink signal and the second downlink signal are received in non-overlapping time resources having a same number of symbols. receiving a single downlink control information, DCI; and based on the single DCI, receiving a first downlink signal and a second downlink signal based on a same transport block, TB, characterized by , the single DCI includes information representing i) a first quasi co-location, QCL, relationship between one or more reference signals and a first demodulation-reference signal, DM-RS, of the first downlink signal and ii) a second QCL relationship between one or more reference signals and a second DM-RS of the second downlink signal, and wherein the first downlink signal and the second downlink signal are received in non-overlapping time resources having a same number of symbols.
An anion exchange porous medium comprising a porous support and a crosslinked cationic polymer coating disposed thereon, wherein the cationic polymer of the crosslinked cationic polymer coating comprises a polymer comprising at least one polymerized monomer (A), at least one polymerized monomer (B), and at least one polymerized crosslinking agent, wherein said polymer has been quaternized with a quaternizing agent, wherein monomer (A) has the formula: CH 2 =C(R 1 )-C(=O)-NH-(CH 2 ) n -NR 2 R 3 , wherein n is 1-6, monomer (B) has the formula: CH 2 =C(R 4 )-C(=O)-NR 5 R 6 , the crosslinking agent is an agent having two, three, or more epoxy groups, and the quaternizing agent is a monoglycidyl ether, wherein R 1 and R 4 are independently selected from H and C 1 -C 6 alkyl, and R 2 , R 3 , R 5 , and R 6 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl, wherein the crosslinking agent is an agent having two, three, or more epoxy groups and the quaternizing agent selected from isopropyl glycidyl ether, phenyl glycidyl ether, tertbutyl glycidyl ether, ethylhexyl glycidyl ether, glycidyl methyl ether, and benzyl glycidyl ether. wherein the cationic polymer of the crosslinked cationic polymer coating comprises a polymer comprising at least one polymerized monomer (A), at least one polymerized monomer (B), and at least one polymerized crosslinking agent, wherein said polymer has been quaternized with a quaternizing agent, wherein monomer (A) has the formula: CH 2 =C(R 1 )-C(=O)-NH-(CH 2 ) n -NR 2 R 3 , wherein n is 1-6, monomer (B) has the formula: CH 2 =C(R 4 )-C(=O)-NR 5 R 6 , the crosslinking agent is an agent having two, three, or more epoxy groups, and the quaternizing agent is a monoglycidyl ether, CH 2 =C(R 1 )-C(=O)-NH-(CH 2 ) n -NR 2 R 3 , wherein n is 1-6, monomer (B) has the formula: CH 2 =C(R 4 )-C(=O)-NR 5 R 6 , the crosslinking agent is an agent having two, three, or more epoxy groups, and the quaternizing agent is a monoglycidyl ether, wherein R 1 and R 4 are independently selected from H and C 1 -C 6 alkyl, and R 2 , R 3 , R 5 , and R 6 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl, R 1 and R 4 are independently selected from H and C 1 -C 6 alkyl, and R 2 , R 3 , R 5 , and R 6 are independently selected from H, C 1 -C 6 alkyl, C 6 -C 10 aryl, methoxymethyl, and triphenylmethyl, wherein the crosslinking agent is an agent having two, three, or more epoxy groups and the quaternizing agent selected from isopropyl glycidyl ether, phenyl glycidyl ether, tertbutyl glycidyl ether, ethylhexyl glycidyl ether, glycidyl methyl ether, and benzyl glycidyl ether.
An improved filling apparatus for filling capsules with powdered substances for pharmaceutical or parapharmaceutical, nutraceutical use or the like, comprising a body-machine inside which the mechanical and electrical and/or electronic components are housed which are adapted to operate an operating unit comprising a body supporting a rotating table adapted to receive capsules to be filled with a powdered product from a capsule feeding station , move the capsules in the direction of a filling station functional for filling said capsules with the powdered product and eject the capsules once filled at an ejection station , the apparatus characterized in that the filling station comprises a pair of parallel and opposite columns vertically stabilized to the body at the rotating table , a first support and a second support equally stabilized to the body of the operating unit of the body-machine for an interchangeable type stabilization of a tamping filling unit or a dosing filling unit with respect to said body-machine for a variation of the filling configuration of the capsule with the powdered product, said pair of parallel and opposite columns whose distance between the fixed columns is corresponding to a coupling element of the tamping filling unit and the dosing filling unit .
A steam generation system for a household appliance, comprising - a tank adapted to contain a liquid to be heated to generate the steam; characterized in that it comprises - a dosing device ; - a first pipe adapted to connect the tank to the dosing device , the tank and the dosing device being arranged so as to define a communicating vessel system; - a steam generator arranged downstream of the tank and of the dosing device ; - a second pipe adapted to connect at least one part of the first pipe to the steam generator ; - a valve having a first position in which it allows the passage of liquid from said at least one part of the first pipe to the steam generator , and a second position in which it prevents the passage of liquid from said at least one part of the first pipe to the steam generator . - a tank adapted to contain a liquid to be heated to generate the steam; - a dosing device ; - a first pipe adapted to connect the tank to the dosing device , the tank and the dosing device being arranged so as to define a communicating vessel system; - a steam generator arranged downstream of the tank and of the dosing device ; - a second pipe adapted to connect at least one part of the first pipe to the steam generator ; - a valve having a first position in which it allows the passage of liquid from said at least one part of the first pipe to the steam generator , and a second position in which it prevents the passage of liquid from said at least one part of the first pipe to the steam generator .
A method for interworking between a wireless local area network and another network with different technology, comprising: receiving in an end user access device a signal indicating that an extended set of information about a wireless local area network is available before the end user access device actually authenticates and associates to a wireless point of attachment in the wireless local area network; sending from the end user access device an information request signal containing a request for available information from the extended set of information; receiving in the end user access device an information response signal containing the available information requested from the extended set of information; and deciding in the end user access device whether to authenticate and associate to the wireless point of attachment in the wireless local area network based at least partly on the available information received in the information response signal, wherein the available information comprises at least one of internet connectivity and internet protocol address type support, and wherein the information request signal is an extended probe request or a new control/action frame. receiving in an end user access device a signal indicating that an extended set of information about a wireless local area network is available before the end user access device actually authenticates and associates to a wireless point of attachment in the wireless local area network; sending from the end user access device an information request signal containing a request for available information from the extended set of information; receiving in the end user access device an information response signal containing the available information requested from the extended set of information; and deciding in the end user access device whether to authenticate and associate to the wireless point of attachment in the wireless local area network based at least partly on the available information received in the information response signal, wherein the available information comprises at least one of internet connectivity and internet protocol address type support, and wherein the information request signal is an extended probe request or a new control/action frame.
A checkweighing device for installation and use between an infeed conveyor and an outfeed conveyor that are arranged in parallel, spaced apart at a horizontal distance, and vertically offset relative to each other, wherein the infeed conveyor has a transport surface located at a higher level than a transport surface of the outfeed conveyor , the checkweighing device comprising: a weighing cell with a weighing platform ; a power-actuated rake ; and a slide chute comprising at least one sorting gate, the slide chute adapted to direct items either to the outfeed conveyor or to a discard receiver; wherein, in the installed state of the checkweighing device between said infeed conveyor and outfeed conveyor : the weighing platform is arranged laterally adjacent to and substantially level with the transport surface of the infeed conveyor , the slide chute adjoins an opposite side of the weighing platform and leads to the outfeed conveyor , and the rake is arranged to move in a direction transverse to the direction of transport of the infeed conveyor , so as to perform the functions of sweeping incoming items from the transport surface of the infeed conveyor over to the weighing platform , and sweeping items that have been weighed from the weighing platform to the slide chute . a weighing cell with a weighing platform ; a power-actuated rake ; and a slide chute comprising at least one sorting gate, the slide chute adapted to direct items either to the outfeed conveyor or to a discard receiver; wherein, in the installed state of the checkweighing device between said infeed conveyor and outfeed conveyor : the weighing platform is arranged laterally adjacent to and substantially level with the transport surface of the infeed conveyor , the slide chute adjoins an opposite side of the weighing platform and leads to the outfeed conveyor , and the rake is arranged to move in a direction transverse to the direction of transport of the infeed conveyor , so as to perform the functions of sweeping incoming items from the transport surface of the infeed conveyor over to the weighing platform , and sweeping items that have been weighed from the weighing platform to the slide chute . the weighing platform is arranged laterally adjacent to and substantially level with the transport surface of the infeed conveyor , the slide chute adjoins an opposite side of the weighing platform and leads to the outfeed conveyor , and the rake is arranged to move in a direction transverse to the direction of transport of the infeed conveyor , so as to perform the functions of sweeping incoming items from the transport surface of the infeed conveyor over to the weighing platform , and sweeping items that have been weighed from the weighing platform to the slide chute .
Sport weapon comprising: - a handle ; - a blade extending from said handle and having a cross section "V"-shaped profile, and defining a longitudinal groove extending along the extension of the blade itself; - a guard interposed between the blade and the handle ; - a lighting kit comprising: - a light source ; - at least one light (L) guided propagation member , the light being generated by said source , said member being housed inside the groove formed on the blade of said weapon ; - constraint means for stably engaging the propagation member within said groove ; and - supply means electrically connected to said light source ; wherein said light source comprises at least one LED which can be positioned at the handle of the weapon; said LED generating light (L) having electromagnetic frequency within the visible spectrum; said light guided propagation member comprising at least one optical fibre extending along the longitudinal extension of the groove formed on the blade ; said optical fibre having a first end connected to the light source and a second end opposite to he first and close to the tip of the blade , and said constraint means comprising at least one resin or glue, transparent to light radiation to propagate the light (L) propagated by the fibre ; said resin-glue being distributed along the entire groove . - a handle ; - a blade extending from said handle and having a cross section "V"-shaped profile, and defining a longitudinal groove extending along the extension of the blade itself; - a guard interposed between the blade and the handle ; - a lighting kit comprising: - a light source ; - at least one light (L) guided propagation member , the light being generated by said source , said member being housed inside the groove formed on the blade of said weapon ; - constraint means for stably engaging the propagation member within said groove ; and - supply means electrically connected to said light source ; wherein said light source comprises at least one LED which can be positioned at the handle of the weapon; said LED generating light (L) having electromagnetic frequency within the visible spectrum; said light guided propagation member comprising at least one optical fibre extending along the longitudinal extension of the groove formed on the blade ; said optical fibre having a first end connected to the light source and a second end opposite to he first and close to the tip of the blade , and said constraint means comprising at least one resin or glue, transparent to light radiation to propagate the light (L) propagated by the fibre ; said resin-glue being distributed along the entire groove .
A process for removal of organic acetates from a mono ethylene glycol ("MEG") stream, the process comprising: routing a MEG stream having organic acetates to a reaction vessel; cooling and diluting the MEG stream being routed to the reaction vessel to a lower %wt MEG and a lower temperature than an upstream % wt MEG and temperature of the MEG stream; acidifying the MEG stream under a vacuum during its residence time within the reaction vessel to a pH in a range of 3.5 to 5.5; and removing an acetic acid-rich overhead stream from the reaction vessel. routing a MEG stream having organic acetates to a reaction vessel; cooling and diluting the MEG stream being routed to the reaction vessel to a lower %wt MEG and a lower temperature than an upstream % wt MEG and temperature of the MEG stream; acidifying the MEG stream under a vacuum during its residence time within the reaction vessel to a pH in a range of 3.5 to 5.5; and removing an acetic acid-rich overhead stream from the reaction vessel.
A developer cartridge to be detached from a main body of an image forming apparatus, the developer cartridge comprising: a photoconductor ; and a housing comprising a lower frame , an upper frame and a waste toner container to receive waste toner from the photoconductor ; wherein the upper frame constitutes an upper wall of the waste toner container that includes a recessed portion to disperse the waste toner from the photoconductor to either sides of the waste toner container; and wherein the recessed portion is in a center portion of the upper wall, the center portion corresponding to a center portion of the photoconductor in an end-to-end lengthwise direction of the photoconductor , and wherein the recessed portion is depressed downwardly from the upper wall toward the photoconductor , the waste toner container further comprising a cleaning unit in which a cleaning member is installed, and a container spaced apart from the cleaning unit to contain the waste toner transferred from the cleaning unit by a waste toner transporting member , wherein a depth of the recessed portion in a downward direction (B1) towards the photoconductor increases in a rear direction (A2) from the cleaning unit towards the container over at least a portion of the length (L2) of the recessed portion in the rear direction (A2). a photoconductor ; and a housing comprising a lower frame , an upper frame and a waste toner container to receive waste toner from the photoconductor ; wherein the upper frame constitutes an upper wall of the waste toner container that includes a recessed portion to disperse the waste toner from the photoconductor to either sides of the waste toner container; and wherein the recessed portion is in a center portion of the upper wall, the center portion corresponding to a center portion of the photoconductor in an end-to-end lengthwise direction of the photoconductor , and wherein the recessed portion is depressed downwardly from the upper wall toward the photoconductor , the waste toner container further comprising a cleaning unit in which a cleaning member is installed, and a container spaced apart from the cleaning unit to contain the waste toner transferred from the cleaning unit by a waste toner transporting member , wherein a depth of the recessed portion in a downward direction (B1) towards the photoconductor increases in a rear direction (A2) from the cleaning unit towards the container over at least a portion of the length (L2) of the recessed portion in the rear direction (A2).
A method for thermal control in an additive manufacturing system, comprising: receiving position information from an encoder device ; receiving a data stream from a thermal sensing device ; filtering the data stream based on the position information; and building a temperature image map from the filtered data stream. receiving position information from an encoder device ; receiving a data stream from a thermal sensing device ; filtering the data stream based on the position information; and building a temperature image map from the filtered data stream.
A method for steering a steering device of a ship hull having a propeller , a screw shaft for the propeller and the steering device , whereby the steering device having: - two steering shafts , - a driving mechanism for rotating the two steering shafts , - a power mechanism for driving the steering shafts , - two rudder plates , - whereby an upper portion of each of the rudder plates is connected and suspended to one of the steering shafts , - whereby the steering shafts are biaxially arranged rotatably to have a vertical rotation axis located on both sides of said screw shaft , - wherein the two rudder plates are arranged such that they are locatable lateral to said propeller at the time of the ship straight travelling, - wherein the steering device is arranged such that the two rudder plates simultaneously rotate in mutually opposite directions, - wherein the steering device is configured such that the two rudder plates are arranged via the steering shafts lateral to the propeller when the ship is traveling straight; that the two rudder plates are turned to an upstream side 45° forward as a speed reducing stage at the time of initial motion of a stop maneuver, and that in the stop maneuver, at a next stage, the two rudder plates exceeding a rudder angle of 70°, and the two rudder plates cooperate to almost block the propeller slipstream. - two steering shafts , - a driving mechanism for rotating the two steering shafts , - a power mechanism for driving the steering shafts , - two rudder plates , - whereby an upper portion of each of the rudder plates is connected and suspended to one of the steering shafts , - whereby the steering shafts are biaxially arranged rotatably to have a vertical rotation axis located on both sides of said screw shaft , - wherein the two rudder plates are arranged such that they are locatable lateral to said propeller at the time of the ship straight travelling, - wherein the steering device is arranged such that the two rudder plates simultaneously rotate in mutually opposite directions, - wherein the steering device is configured such that the two rudder plates are arranged via the steering shafts lateral to the propeller when the ship is traveling straight; that the two rudder plates are turned to an upstream side 45° forward as a speed reducing stage at the time of initial motion of a stop maneuver, and that in the stop maneuver, at a next stage, the two rudder plates exceeding a rudder angle of 70°, and the two rudder plates cooperate to almost block the propeller slipstream. the steering device is configured such that the two rudder plates are arranged via the steering shafts lateral to the propeller when the ship is traveling straight; that the two rudder plates are turned to an upstream side 45° forward as a speed reducing stage at the time of initial motion of a stop maneuver, and that in the stop maneuver, at a next stage, the two rudder plates exceeding a rudder angle of 70°, and the two rudder plates cooperate to almost block the propeller slipstream.