mhurhangee/patent-ind-claim-en huggingface dataset:
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.
Adapter - having an electronic household meter that acquires, stores in ready-to-retrieve form and displays electrical consumption information, - having an apparatus for connecting electrical lines to the household meter , - the connecting apparatus having three incoming feeders leading to the meter , three outgoing feeders (50.2, 51.2, 52.2) coming from the meter and two neutral conductors , which are each mounted on the apparatus using screw terminals (42.1, 42.3, 42.5, 42.7, 42.9, 42.11, 42.13, 42.15), - all of the incoming and outgoing feeders having respective phase devices (46.2, 46.4, 46.6, 46.8, 46.10, 46.12, 46.14, 46.16) on them, which are each in the form of screw terminals (46.2, 46.4, 46.6, 46.8, 46.10, 46.12, 46.14, 46.16), - characterized in that - the screw terminals (42.1, 42.3, 42.5, 42.7, 42.9, 42.11, 42.13, 42.15) of the incoming and outgoing feeders are arranged in an upper row that points towards the meter , - the phase tap devices (46.2, 46.4, 46.6, 46.8, 46.10, 46.12, 46.14, 46.16) are arranged in a lower row , parallel to the upper row , that points away from the meter . - having an electronic household meter that acquires, stores in ready-to-retrieve form and displays electrical consumption information, - having an apparatus for connecting electrical lines to the household meter , - the connecting apparatus having three incoming feeders leading to the meter , three outgoing feeders (50.2, 51.2, 52.2) coming from the meter and two neutral conductors , which are each mounted on the apparatus using screw terminals (42.1, 42.3, 42.5, 42.7, 42.9, 42.11, 42.13, 42.15), - all of the incoming and outgoing feeders having respective phase devices (46.2, 46.4, 46.6, 46.8, 46.10, 46.12, 46.14, 46.16) on them, which are each in the form of screw terminals (46.2, 46.4, 46.6, 46.8, 46.10, 46.12, 46.14, 46.16), - characterized in that - the screw terminals (42.1, 42.3, 42.5, 42.7, 42.9, 42.11, 42.13, 42.15) of the incoming and outgoing feeders are arranged in an upper row that points towards the meter , - the phase tap devices (46.2, 46.4, 46.6, 46.8, 46.10, 46.12, 46.14, 46.16) are arranged in a lower row , parallel to the upper row , that points away from the meter .
A wheel axle for holding a pivoting vehicle frame ; wherein the wheel axle has a rigid shaft and an axle frame , wherein the shaft is rotatably mounted by means of the axle frame and the axle frame can be connected to the vehicle frame , wherein a first bearing point (L1) is arranged on the axle frame in order to support the vehicle frame on the axle frame pivotably about a pivot axis (S), a second bearing point (L2) being arranged on the rigid shaft in order to mount the vehicle frame on the rigid shaft pivotably about the pivot axis (S), the pivot axis (S) being defined by the connecting line (VL) of the first bearing point (L1) and the second bearing point (L2) in the longitudinal direction of the vehicle frame and the pivot axis (S) extending transversely to the rigid shaft , and wherein the second bearing point (L2) has a constant velocity joint with a rolling or plain bearing arranged on the circumference of the constant velocity joint . wherein the wheel axle has a rigid shaft and an axle frame , wherein the shaft is rotatably mounted by means of the axle frame and the axle frame can be connected to the vehicle frame , wherein a first bearing point (L1) is arranged on the axle frame in order to support the vehicle frame on the axle frame pivotably about a pivot axis (S), a second bearing point (L2) being arranged on the rigid shaft in order to mount the vehicle frame on the rigid shaft pivotably about the pivot axis (S), the pivot axis (S) being defined by the connecting line (VL) of the first bearing point (L1) and the second bearing point (L2) in the longitudinal direction of the vehicle frame and the pivot axis (S) extending transversely to the rigid shaft , and wherein the second bearing point (L2) has a constant velocity joint with a rolling or plain bearing arranged on the circumference of the constant velocity joint .
A power management method comprising: a step A of transmitting a first message from a power management server to a local control apparatus according to a first protocol, the power management server managing a facility connected to a power grid , the local control apparatus provided in the facility ; a step B of transmitting a second message from the local control apparatus to an equipment according to a second protocol different from the first protocol; characterized by a step C of transmitting a third message from the local control apparatus to the power management server according to the first protocol, the third message including specification information including a list of local control elements which the equipment is capable of dealing with according to the second protocol among the local control elements, the second message according to the second protocol requesting the setting of an operating state of the equipment , and wherein in the step A, the power management server transmits the first message to the local control apparatus based on the list of local control elements, and in the step B, the local control apparatus transmits to the equipment the second message based on the list of the local control elements. a step A of transmitting a first message from a power management server to a local control apparatus according to a first protocol, the power management server managing a facility connected to a power grid , the local control apparatus provided in the facility ; a step B of transmitting a second message from the local control apparatus to an equipment according to a second protocol different from the first protocol; characterized by a step C of transmitting a third message from the local control apparatus to the power management server according to the first protocol, the third message including specification information including a list of local control elements which the equipment is capable of dealing with according to the second protocol among the local control elements, the second message according to the second protocol requesting the setting of an operating state of the equipment , and wherein in the step A, the power management server transmits the first message to the local control apparatus based on the list of local control elements, and in the step B, the local control apparatus transmits to the equipment the second message based on the list of the local control elements.
A method for correcting for distortions in seismic data produced by a seismic vibrator that is immersed in a fluid, the method comprising: applying a pilot signal to the vibrator such that an acoustic wavefield travels outwards from an interface between the vibrator outer surface and the fluid, characterized in that the method comprises: using a sensor located within the fluid at a distance that is equal to or less than around 5 meters from the outer surface of the vibrator, or located inwards a body of the vibrator, so as to be sensitive to a property of the wavefield in the fluid to measure the property of the wavefield as a function of time as sensor measurements; applying a pre-determined impulse response to the sensor measurements to determine a change in wet volume of a component of the vibrator as a function of time V(t) or derivatives of V(t); determining a shape of the vibrator component as a function of time, S(t), from V(t) or derivatives thereof, and using S(t) to derive one or more properties of a far wavefield produced by the vibrator at a distance greater than around 5 meters from the outer surface of the vibrator; using seismic receivers in an array including the vibrator to collect seismic data produced by the vibrator; and using the derived properties of the far wavefield to correct for distortions in the seismic data during processing of the seismic data. using a sensor located within the fluid at a distance that is equal to or less than around 5 meters from the outer surface of the vibrator, or located inwards a body of the vibrator, so as to be sensitive to a property of the wavefield in the fluid to measure the property of the wavefield as a function of time as sensor measurements; applying a pre-determined impulse response to the sensor measurements to determine a change in wet volume of a component of the vibrator as a function of time V(t) or derivatives of V(t); determining a shape of the vibrator component as a function of time, S(t), from V(t) or derivatives thereof, and using S(t) to derive one or more properties of a far wavefield produced by the vibrator at a distance greater than around 5 meters from the outer surface of the vibrator; using seismic receivers in an array including the vibrator to collect seismic data produced by the vibrator; and using the derived properties of the far wavefield to correct for distortions in the seismic data during processing of the seismic data.
Closure system for a holder for a reaction vessel in an automatic analysis apparatus, said closure system comprising - a lid secured movably about an axis on a retainer element , wherein the lid closes an opening of the holder in a closed position and opens it in an open position, and - a restoring element, which is designed in such a way that, depending on the position of the lid , it exerts a restoring force in the direction of the closed position or of the open position, wherein the axis about which the lid is movable is in the form of a shaft to which the lid is connected, wherein a lever , which extends radially on both sides of the axis, is mounted on at least one end of the shaft , wherein a cam is arranged on the shaft such that, in the closed position, it exerts a vertical force on the restoring element and wherein the restoring element is designed as a flexural beam spring , characterized in that the flexural beam spring is U-shaped, wherein one end of the flexural beam spring is connected fixedly to the retainer element , while the free end is arranged such that it can interact with the cam such that, if the lid is opened only slightly, the cam inclines, as a result of which the flexural beam spring is deflected and thus exerts a restoring force in the direction of the closed position. - a lid secured movably about an axis on a retainer element , wherein the lid closes an opening of the holder in a closed position and opens it in an open position, and - a restoring element, which is designed in such a way that, depending on the position of the lid , it exerts a restoring force in the direction of the closed position or of the open position, wherein the axis about which the lid is movable is in the form of a shaft to which the lid is connected, wherein a lever , which extends radially on both sides of the axis, is mounted on at least one end of the shaft , wherein a cam is arranged on the shaft such that, in the closed position, it exerts a vertical force on the restoring element and wherein the restoring element is designed as a flexural beam spring , characterized in that the flexural beam spring is U-shaped, wherein one end of the flexural beam spring is connected fixedly to the retainer element , while the free end is arranged such that it can interact with the cam such that, if the lid is opened only slightly, the cam inclines, as a result of which the flexural beam spring is deflected and thus exerts a restoring force in the direction of the closed position.
A fan assembly for installation in an internal space to provide ventilation in the internal space, the fan assembly comprising: a fan rotor for generating a ventilating flow, the inflow into the fan rotor being substantially parallel to the outflow from the fan rotor; a nozzle throughbore having an edge which, in use, is in proximity to a surrounding surface in which the fan assembly is installed, wherein said nozzle throughbore edge is not arranged to direct the flow away from the surrounding surface of the internal space when air is supplied from the fan rotor , wherein: the nozzle throughbore has a trailing edge at a distal end from the fan, an angle made between the nozzle trailing edge and a centreline of the fan being not perpendicular; the fan assembly is arranged or arrangeable such that a ventilating flow generated by the fan will pass through the nozzle before exiting the assembly to enter a space to be ventilated; characterised in that the sidewalls of the nozzle throughbore diverge at an angle with respect to the fan centreline; the nozzle throughbore trailing edge is formed as a circle; and a bellmouth extends from the nozzle trailing edge. a fan rotor for generating a ventilating flow, the inflow into the fan rotor being substantially parallel to the outflow from the fan rotor; a nozzle throughbore having an edge which, in use, is in proximity to a surrounding surface in which the fan assembly is installed, wherein said nozzle throughbore edge is not arranged to direct the flow away from the surrounding surface of the internal space when air is supplied from the fan rotor , wherein: the nozzle throughbore has a trailing edge at a distal end from the fan, an angle made between the nozzle trailing edge and a centreline of the fan being not perpendicular; the fan assembly is arranged or arrangeable such that a ventilating flow generated by the fan will pass through the nozzle before exiting the assembly to enter a space to be ventilated; characterised in that the sidewalls of the nozzle throughbore diverge at an angle with respect to the fan centreline; the nozzle throughbore trailing edge is formed as a circle; and a bellmouth extends from the nozzle trailing edge. the nozzle throughbore has a trailing edge at a distal end from the fan, an angle made between the nozzle trailing edge and a centreline of the fan being not perpendicular; the fan assembly is arranged or arrangeable such that a ventilating flow generated by the fan will pass through the nozzle before exiting the assembly to enter a space to be ventilated; characterised in that the sidewalls of the nozzle throughbore diverge at an angle with respect to the fan centreline; the nozzle throughbore trailing edge is formed as a circle; and a bellmouth extends from the nozzle trailing edge.
An apparatus , comprising: a computing device base for connecting to tablet-type computing device , wherein the computing device base includes a scoop, wherein the scoop comprises a concave partially cylindrical section substantially extending the length of one side of the computing device base suitable for receiving a barrel portion of the tablet-type computing device, and a band segment integrated with the scoop, wherein the computing device base includes a computer keyboard , characterised in that , the band segment comprises a rib segment protruding out from the surface thereof, wherein the rib segment further comprises at least a first tooth protruding out of the rib segment, and wherein the first tooth protrudes out of a location at the center of the rib segment. a computing device base for connecting to tablet-type computing device , wherein the computing device base includes a scoop, wherein the scoop comprises a concave partially cylindrical section substantially extending the length of one side of the computing device base suitable for receiving a barrel portion of the tablet-type computing device, and a band segment integrated with the scoop, wherein the computing device base includes a computer keyboard , characterised in that , the band segment comprises a rib segment protruding out from the surface thereof, wherein the rib segment further comprises at least a first tooth protruding out of the rib segment, and wherein the first tooth protrudes out of a location at the center of the rib segment.
A knee airbag arrangement for a vehicle , said knee airbag arrangement comprising an inflatable airbag , said airbag being adapted to be inflated to a position between an instrument panel of said vehicle and a knee/shin region of a vehicle occupant , characterized in that said airbag comprising - an inflatable first airbag member , and - an second airbag member , being selectively inflatable, said airbag being adapted to form a first deployment mode or a second deployment mode when in a deployed state, a depth (D 2 ) of said airbag in said second deployment mode being greater than a depth (D 1 ) of said airbag in said first deployment mode, a depth (D 1 , D 2 ) of said airbag in a deployed state being a greatest extent of said airbag perpendicular to said instrument panel in said knee/shin region , in said first deployment mode of said airbag , said first airbag member is deployed and said second airbag member is undeployed, in said second deployment mode, said first airbag member and second airbag member are deployed, such that said second airbag member provides or contributes to said greater depth (D 2 ). - an inflatable first airbag member , and - an second airbag member , being selectively inflatable,
A board inspection machine comprising: a carrier member conveyance device that is configured to load, position, and unload a carrier member on which multiple individual boards are placed, wherein solder paste is to be printed and a component is to be mounted on each of the individual boards ; a board lifting-up device that is configured to lift up the individual board from above; and a flatness inspection device that is disposed upward and is configured to inspect flatness of the lifted individual board from below and to determine usability of the individual board . a carrier member conveyance device that is configured to load, position, and unload a carrier member on which multiple individual boards are placed, wherein solder paste is to be printed and a component is to be mounted on each of the individual boards ; a board lifting-up device that is configured to lift up the individual board from above; and a flatness inspection device that is disposed upward and is configured to inspect flatness of the lifted individual board from below and to determine usability of the individual board .
A method for converting an olefin or an alcohol for producing propylene or an aromatic compound, comprising: a pretreatment step of obtaining a conductive catalyst by charging a fluidized bed reactor comprising a feed gas supply pipe , a product gas pipe downstream of the reactor, a catalytic bed , a differential pressure gage and cyclones with a non-conductive catalyst containing a zeolite and silica and supplying a heated hydrocarbon gas to the fluidized bed reactor and bringing it into contact with the non-conductive catalyst in the fluidized bed reactor at a temperature of 300 to 650 °C under a pressure of 0.01 to 3.0 MPa·G to precipitate carbonaceous coke and deposit it on the non-conductive catalyst; and a step of converting the olefin or the alcohol by a fluidized bed reaction using the conductive catalyst, wherein in the pretreatment step, the gas supply rate is 0.40 m/sec or less in terms of gas flow rate in the fluidized bed reactor, and in the step of converting the olefin or the alcohol, the gas supply rate is 0.5 m/sec or more and 2.0 m/sec or less in terms of gas flow rate during the fluidized bed reaction, wherein the conductive catalyst has an electrostatic deposition rate of less than 15 mass % and the non-conductive catalyst has an electrostatic deposition rate of 15 mass % or more, wherein the electrostatic deposition rate is determined as described in the description, and the gas flow rate is determined in accordance with the following formula: Gas flow rate m / sec = feed-gas flow volume m 3 / sec / cross-sectional area of reactor m 2 . a pretreatment step of obtaining a conductive catalyst by charging a fluidized bed reactor comprising a feed gas supply pipe , a product gas pipe downstream of the reactor, a catalytic bed , a differential pressure gage and cyclones with a non-conductive catalyst containing a zeolite and silica and supplying a heated hydrocarbon gas to the fluidized bed reactor and bringing it into contact with the non-conductive catalyst in the fluidized bed reactor at a temperature of 300 to 650 °C under a pressure of 0.01 to 3.0 MPa·G to precipitate carbonaceous coke and deposit it on the non-conductive catalyst; and a step of converting the olefin or the alcohol by a fluidized bed reaction using the conductive catalyst, wherein in the pretreatment step, the gas supply rate is 0.40 m/sec or less in terms of gas flow rate in the fluidized bed reactor, and in the step of converting the olefin or the alcohol, the gas supply rate is 0.5 m/sec or more and 2.0 m/sec or less in terms of gas flow rate during the fluidized bed reaction, wherein the conductive catalyst has an electrostatic deposition rate of less than 15 mass % and the non-conductive catalyst has an electrostatic deposition rate of 15 mass % or more, wherein the electrostatic deposition rate is determined as described in the description, and the gas flow rate is determined in accordance with the following formula: Gas flow rate m / sec = feed-gas flow volume m 3 / sec / cross-sectional area of reactor m 2 .