mhurhangee/ep-ind-claims huggingface dataset:
An actuating device comprising: a housing; an electromagnetic coil configured to receive an electrical current; at least one magnetic element; a piston attached to the at least one magnetic element; at least one fluid outlet port; wherein the piston is contained within a piston housing comprising at least one fluid inlet port; wherein a sterile barrier is provided between the electromagnetic coil and the at least one magnetic element; wherein application of a voltage to the electromagnetic coil creates a magnetic flux received by the at least one magnetic element and causes the at least one magnetic element and piston to move in a first linear direction from a first position to a second position; wherein the at least one magnetic element and piston are configured to move from the second position to the first position in a second linear direction that is opposite the first linear direction; and wherein the at least one magnetic element and piston are configured to move from the second position to the first position in a cyclical manner by reversing the polarity of voltage applied to the electromagnetic coil in a repeated manner; characterized in that the actuating device further comprises a porous membrane filter; f wherein the porous membrane filter surrounds at least a portion of the piston housing including the at least one fluid inlet port. a housing; an electromagnetic coil configured to receive an electrical current; at least one magnetic element; a piston attached to the at least one magnetic element; at least one fluid outlet port; wherein the piston is contained within a piston housing comprising at least one fluid inlet port; wherein a sterile barrier is provided between the electromagnetic coil and the at least one magnetic element; wherein application of a voltage to the electromagnetic coil creates a magnetic flux received by the at least one magnetic element and causes the at least one magnetic element and piston to move in a first linear direction from a first position to a second position; wherein the at least one magnetic element and piston are configured to move from the second position to the first position in a second linear direction that is opposite the first linear direction; and wherein the at least one magnetic element and piston are configured to move from the second position to the first position in a cyclical manner by reversing the polarity of voltage applied to the electromagnetic coil in a repeated manner; characterized in that the actuating device further comprises a porous membrane filter; f wherein the porous membrane filter surrounds at least a portion of the piston housing including the at least one fluid inlet port.
A textile-like in-mold sheet that is to be integrated with a resin molded body molded by injection of a molten resin by in-molding, comprising: a first surface that is to be integrated with the resin molded body, and a second surface that serves as a back side of the first surface; wherein the textile-like in-mold sheet comprises, in the order from the first surface toward the second surface, a textile material layer, a temporary adhesive layer, optionally, if the removable adhesive resin of adhesive layer is a polyvinyl alcohol film, another pressure-sensitive adhesive or adhesive layer, and a temporary surface protection layer, wherein the temporary surface protection layer and the temporary adhesive layer are temporarily bonded to the textile material layer, and wherein the textile material layer comprises a woven fabric, a knitted fabric, a felt, a non-woven fabric, a synthetic leather, or an artificial leather. a first surface that is to be integrated with the resin molded body, and a second surface that serves as a back side of the first surface; wherein the textile-like in-mold sheet comprises, in the order from the first surface toward the second surface, a textile material layer, a temporary adhesive layer, optionally, if the removable adhesive resin of adhesive layer is a polyvinyl alcohol film, another pressure-sensitive adhesive or adhesive layer, and a temporary surface protection layer, wherein the temporary surface protection layer and the temporary adhesive layer are temporarily bonded to the textile material layer, and wherein the textile material layer comprises a woven fabric, a knitted fabric, a felt, a non-woven fabric, a synthetic leather, or an artificial leather.
A developing roller, comprising an elastic layer, a coat layer formed on the elastic layer, and end portion coat layers formed on outermost surfaces on two axial end portions, wherein the end portion coat layers comprise a conductive material, characterized in that the end portion coat layers have a higher hardness than the coat layer, wherein a ratio (Ω1/Ω2) of a resistance value Ω1 at an axial central part of the end portion coat layers to a resistance value Ω2 at an axial central part of the coat layer is 1.6 or less, and wherein an absolute value (|Ω1 - Ω2|) of a difference between the resistance value Ω1 at an axial central part of the end portion coat layers and the resistance value Ω2 at an axial central part of the coat layer is 0.7 GΩ or less, the resistance values Ω1 and Ω2 being determined according to methods identified in the description. wherein the end portion coat layers comprise a conductive material, characterized in that the end portion coat layers have a higher hardness than the coat layer, wherein a ratio (Ω1/Ω2) of a resistance value Ω1 at an axial central part of the end portion coat layers to a resistance value Ω2 at an axial central part of the coat layer is 1.6 or less, and wherein an absolute value (|Ω1 - Ω2|) of a difference between the resistance value Ω1 at an axial central part of the end portion coat layers and the resistance value Ω2 at an axial central part of the coat layer is 0.7 GΩ or less, the resistance values Ω1 and Ω2 being determined according to methods identified in the description.
A fat composition comprising: from 55 to 75 % StOSt; from 10 to 25 % POSt; and less than 10 % POP; said percentages being by weight based on total triglycerides present in the composition, and having the following N-values: N35 of less than 45; and N10 of greater than 80. from 55 to 75 % StOSt; from 10 to 25 % POSt; and less than 10 % POP; said percentages being by weight based on total triglycerides present in the composition, and having the following N-values: N35 of less than 45; and N10 of greater than 80. N35 of less than 45; and N10 of greater than 80.
Process for preparing a composite silicon/carbon material consisting of carbon-coated silicon particles, wherein the following successive steps are carried out: a) silicon particles are mixed with a solution of an oxygen-free polymer in a solvent, whereby a dispersion of silicon particles in the polymer solution is obtained; b) the dispersion obtained in step a) is subjected to a spray-drying operation, whereby a composite silicon/polymer material consisting of silicon particles coated with the polymer is obtained; c) the material obtained in step b) is pyrolyzed, whereby the composite silicon/carbon material consisting of carbon-coated silicon particles is obtained. a) silicon particles are mixed with a solution of an oxygen-free polymer in a solvent, whereby a dispersion of silicon particles in the polymer solution is obtained; b) the dispersion obtained in step a) is subjected to a spray-drying operation, whereby a composite silicon/polymer material consisting of silicon particles coated with the polymer is obtained; c) the material obtained in step b) is pyrolyzed, whereby the composite silicon/carbon material consisting of carbon-coated silicon particles is obtained.
An apparatus comprising: an energy source configured to generate a beam of energy directed at an area on a target for a vehicle, wherein the target comprises a structure associated with the vehicle, wherein the energy source is configured to generate a beam of energy directed at an area on the structure associated with the vehicle; a position system configured to identify a first position of the area on the target at which the beam of energy is directed; and a movement system configured to move the vehicle in a manner that reduces a difference between the first position of the area on the structure at which the beam of energy is directed and a reference position on the structure. an energy source configured to generate a beam of energy directed at an area on a target for a vehicle, wherein the target comprises a structure associated with the vehicle, wherein the energy source is configured to generate a beam of energy directed at an area on the structure associated with the vehicle; a position system configured to identify a first position of the area on the target at which the beam of energy is directed; and a movement system configured to move the vehicle in a manner that reduces a difference between the first position of the area on the structure at which the beam of energy is directed and a reference position on the structure.
A power distribution protection system comprising: a source coupled to a load by a distribution line, the distribution line being segmented by a plurality of fault protection devices (106, 108), the fault protection devices of each segment forming a team; each of the source and the plurality of fault protection devices including a communication device permitting transmission or reception of a signaling message, and each of the source and the plurality of fault protection devices being operable to monitor the prevailing radio environment in the system to verify a communication response time, and to monitor the current in the system to detect an abnormal current, wherein, upon detection of an abnormal current, each of the source and plurality of fault protection devices detecting the abnormal current is operable to communicate a signaling message to at least one other member of its respective team, and wherein each of the plurality of fault protection devices on the source side receiving a signaling message is operable to adjust a fault protection characteristic by delaying operation for a configured delay time, only if the communication response time is not exceeding the configured delay time, such that the one of the source and the plurality of fault protection devices nearest to the fault on the distribution line operates to isolate the fault from the remainder of the distribution line. a source coupled to a load by a distribution line, the distribution line being segmented by a plurality of fault protection devices (106, 108), the fault protection devices of each segment forming a team; each of the source and the plurality of fault protection devices including a communication device permitting transmission or reception of a signaling message, and each of the source and the plurality of fault protection devices being operable to monitor the prevailing radio environment in the system to verify a communication response time, and to monitor the current in the system to detect an abnormal current, wherein, upon detection of an abnormal current, each of the source and plurality of fault protection devices detecting the abnormal current is operable to communicate a signaling message to at least one other member of its respective team, and wherein each of the plurality of fault protection devices on the source side receiving a signaling message is operable to adjust a fault protection characteristic by delaying operation for a configured delay time, only if the communication response time is not exceeding the configured delay time, such that the one of the source and the plurality of fault protection devices nearest to the fault on the distribution line operates to isolate the fault from the remainder of the distribution line.
An induction burner element for a cooking appliance, the induction burner element comprising: a plurality of injection molded frames positioned in a spaced and concentric relationship, each injection molded frame having at least one lower cavity; a ferrous member disposed within the at least one lower cavity for each injection molded frame; and a plurality of wound coils for each injection molded frame, wherein each wound coil corresponds to a respective injection molded frame, characterized in that each injection molded frame has an upper cavity and in that said plurality of wound coils are disposed within the upper cavity of each injection molded frame. a plurality of injection molded frames positioned in a spaced and concentric relationship, each injection molded frame having at least one lower cavity; a ferrous member disposed within the at least one lower cavity for each injection molded frame; and a plurality of wound coils for each injection molded frame, wherein each wound coil corresponds to a respective injection molded frame, characterized in that each injection molded frame has an upper cavity and in that said plurality of wound coils are disposed within the upper cavity of each injection molded frame.
A fuel tank for a saddled vehicle comprising a fuel cap of an opening and closing type incorporating a breather mechanism, wherein the fuel cap is constituted to close an upper portion of a tubular member constituting a filler opening of the fuel tank, the breather mechanism is constituted to discharge vaporized fuel separated by gas-liquid separation in a labyrinth path within the fuel cap through a breather drain hose supported at a side of the fuel tank, the fuel tank further includes: a plate member provided on an upper surface of the fuel tank and fixed to a support member to support the fuel cap to the fuel tank; and a seal member to airtightly communicate an exit of the labyrinth path and an end portion of the breather drain hose when the fuel cap is closed, and the breather drain hose connected to a lower side of the seal member is supported by the plate member, characterized in that the support member is constituted so that at least one pedestal portion is attached on an upper surface of an annular base plate, the pedestal portion having two leg portions formed by folding a plate member into a substantially U-shape, and the breather drain hose is locked to a guide portion formed in the plate member at a position overlapping with the support member as seen in a plan view of the vehicle. a plate member provided on an upper surface of the fuel tank and fixed to a support member to support the fuel cap to the fuel tank; and a seal member to airtightly communicate an exit of the labyrinth path and an end portion of the breather drain hose when the fuel cap is closed, and
A magnetic marker system including a plurality of magnetic markers laid in or on a traveling road so as to be detectable by a magnetic detecting part attached to a vehicle, the system comprising: vehicles each of which outputs, when detecting any one magnetic marker of the plurality of magnetic markers, detection information including marker identifying information capable of uniquely identifying the magnetic marker; and a server apparatus which acquires the detection information outputted from each of the vehicles, wherein the server apparatus includes a state estimating part which estimates a state of said one magnetic marker based on the plurality of the detection information outputted from each of the vehicles regarding said one magnetic marker. vehicles each of which outputs, when detecting any one magnetic marker of the plurality of magnetic markers, detection information including marker identifying information capable of uniquely identifying the magnetic marker; and a server apparatus which acquires the detection information outputted from each of the vehicles, wherein the server apparatus includes a state estimating part which estimates a state of said one magnetic marker based on the plurality of the detection information outputted from each of the vehicles regarding said one magnetic marker.
A connector for coupling a memory module (210; 330) with a circuit board, the connector (332; 400; 500) comprising: housing (404; 504) including a module-facing side to receive the memory module (210; 330) and a circuit board-facing side to couple with the circuit board; an anchoring power pin (202; 406; 506) to both physically anchor the connector (332; 400; 500) to the circuit board and electrically couple the memory module (210; 330) with the circuit board, the anchoring power pin (202; 406; 506) including a tip protruding from the circuit board-facing side of the connector (332; 400; 500) at an orthogonal angle relative to the circuit board to extend into a matching hole in the circuit board; and a plurality of signal pins (204; 420; 520), wherein each of the plurality of signal pins (204; 420; 520) has a module-contacting end at least partially contained in the housing (404; 504) to couple with the memory module (210; 330) and a circuit board-contacting end at least partially external to the housing (404; 504) to couple with the circuit board; characterized in that a length of a portion of the anchoring power pin (202; 406; 506) that is external to the housing (404; 504) is greater than a length of a portion of a given one of the plurality of signal pins (204; 420; 520) that is external to the housing (404; 504). housing (404; 504) including a module-facing side to receive the memory module (210; 330) and a circuit board-facing side to couple with the circuit board; an anchoring power pin (202; 406; 506) to both physically anchor the connector (332; 400; 500) to the circuit board and electrically couple the memory module (210; 330) with the circuit board, the anchoring power pin (202; 406; 506) including a tip protruding from the circuit board-facing side of the connector (332; 400; 500) at an orthogonal angle relative to the circuit board to extend into a matching hole in the circuit board; and a plurality of signal pins (204; 420; 520), wherein each of the plurality of signal pins (204; 420; 520) has a module-contacting end at least partially contained in the housing (404; 504) to couple with the memory module (210; 330) and a circuit board-contacting end at least partially external to the housing (404; 504) to couple with the circuit board; characterized in that a length of a portion of the anchoring power pin (202; 406; 506) that is external to the housing (404; 504) is greater than a length of a portion of a given one of the plurality of signal pins (204; 420; 520) that is external to the housing (404; 504).
Sprinkler, having a nozzle arrangement, which can be rotated by way of a drive device about an axis of rotation and which emits at least one water jet during sprinkler operation, and having setting means for variably setting the jet shape, characterized in that a blocking device comprises a blocking element, which can be moved between a release position and a blocking position by means of at least one manually operable operating element and, in the blocking position, can be brought into engagement with the drive device to interrupt the rotation of the nozzle arrangement and can be released from the engagement so that the rotation of the nozzle arrangement can resume.
Method for distributing electricity in a system comprising at least the following elements: - a three-phase current distribution network, - recharge terminals (6A, 6B, 6C, 6C, 6D) for electric vehicles (8A, 8B, 8C, 8D) connected to the distribution network via three phase conductors (12A, 14A, 16A, 12B, 14B, 16B, 12C, 14C, 16C, 12D, 14D, 16D, 12E, 14E, 16E) and one neutral conductor (18A, 18B, 18C, 18D, 18E), - electric vehicles (8A to 8D) each equipped with at least one storage battery (40A, 40B, 40C, 40D), - means for measuring electric currents and electric voltages in the system, - a monitoring device suitable for communicating with the electric vehicles (8A to 8D) and the measuring means, the distribution network being suitable for supplying or receiving electricity at the recharge terminals (6A to 6E), the electric vehicles (8A to 8D) being adapted to be recharged or discharged on these terminals (6A to 6E) via a single-phase or three-phase electric link, and the method comprising the following steps: - a) identifying an arrival of an electric vehicle (8A to 8D) at a recharge terminal (6A to 6E), - b) identifying (212, 220) energy requirements of the electric vehicle (8A to 8D), and - d) transferring energy to or from the storage battery (40A to 40D) of the electric vehicle (8A to 8D), the method comprising at least one additional step c), after step b) and prior to step d), for assigning (510, 520) at least one electric current phase (L1, L2, L3) carried by one of the three phase conductors to the recharge terminal (6A to 6E) at which an electric vehicle (8A to 8D) arrives, characterised in that, if the electric vehicle arriving at a terminal is three-phase and if one of the phases is unable to accept additional loads, the loads assigned to the phases of the terminals (6A and 6B) are modified before the effective connexion of the three-phase vehicle to the terminal, to balance the loads on the three phases. - a three-phase current distribution network, - recharge terminals (6A, 6B, 6C, 6C, 6D) for electric vehicles (8A, 8B, 8C, 8D) connected to the distribution network via three phase conductors (12A, 14A, 16A, 12B, 14B, 16B, 12C, 14C, 16C, 12D, 14D, 16D, 12E, 14E, 16E) and one neutral conductor (18A, 18B, 18C, 18D, 18E), - electric vehicles (8A to 8D) each equipped with at least one storage battery (40A, 40B, 40C, 40D), - means for measuring electric currents and electric voltages in the system, - a monitoring device suitable for communicating with the electric vehicles (8A to 8D) and the measuring means, - a) identifying an arrival of an electric vehicle (8A to 8D) at a recharge terminal (6A to 6E), - b) identifying (212, 220) energy requirements of the electric vehicle (8A to 8D), and - d) transferring energy to or from the storage battery (40A to 40D) of the electric vehicle (8A to 8D),
A surgical device for clipping tissue, comprising a clip magazine comprising a plurality of clips; an end effector movable between an open position and a closed position; a jaw actuator operably responsive to a first rotatable input, wherein said jaw actuator is configured to move said end effector between said open position and said closed position; a reciprocating feeder drive operably responsive to a second rotatable input; and a controller configured to: advance a clip of said plurality of clips from said clip magazine into said end effector by way of said feeder drive when said end effector is in said open position; and actuate said jaw actuator to move said end effector toward said closed position without advancing said clip into said end effector; characterised in that the controller is further configured to selectively activate and deactivate the reciprocating feeder drive while the jaw actuator is cycled. a clip magazine comprising a plurality of clips; an end effector movable between an open position and a closed position; a jaw actuator operably responsive to a first rotatable input, wherein said jaw actuator is configured to move said end effector between said open position and said closed position; a reciprocating feeder drive operably responsive to a second rotatable input; and a controller configured to: advance a clip of said plurality of clips from said clip magazine into said end effector by way of said feeder drive when said end effector is in said open position; and actuate said jaw actuator to move said end effector toward said closed position without advancing said clip into said end effector; characterised in that the controller is further configured to selectively activate and deactivate the reciprocating feeder drive while the jaw actuator is cycled. advance a clip of said plurality of clips from said clip magazine into said end effector by way of said feeder drive when said end effector is in said open position; and actuate said jaw actuator to move said end effector toward said closed position without advancing said clip into said end effector; characterised in that the controller is further configured to selectively activate and deactivate the reciprocating feeder drive while the jaw actuator is cycled.