mhurhangee/ep-ind-claims huggingface dataset:
A base station for a mobile communication system that supports a dual connectivity, the base station comprising: a controller configured to allocate additional radio resources to a user terminal during the dual connectivity, wherein the controller is further configured to receive, from another base station that establishes an RRC connection with the user terminal to perform a mobility control in the dual connectivity, a release request requesting a release of the additional radio resources when the another base station ends the dual connectivity, and characterized in that the controller is further configured to transmit, to the another base station, data that the base station has not transmitted to the user terminal, after a reception of the release request. a controller configured to allocate additional radio resources to a user terminal during the dual connectivity, wherein the controller is further configured to receive, from another base station that establishes an RRC connection with the user terminal to perform a mobility control in the dual connectivity, a release request requesting a release of the additional radio resources when the another base station ends the dual connectivity, and characterized in that the controller is further configured to transmit, to the another base station, data that the base station has not transmitted to the user terminal, after a reception of the release request.
A method of isolating a disturbance input (T disturbance (s)) in an electric power steering system, the system including a steering wheel for receiving a driver-applied torque for steering a vehicle, an electric motor coupled to supply a motor assist torque (T assist (s)) to the system to reduce driver steering input effort, and a vehicle component generating the disturbance input to the electric power steering system, the disturbance input having a predetermined frequency range, the method including the steps of: (a) measuring a steering column torque, (T col (s)), and (b) isolating the disturbance input from the steering wheel by following the relationships: T col s T assist s ≈ p s such that the steering system dynamics from T assist to T col is controlled to maintain the original steering feel, where p(s) is the nominal system model from T assist to T col within the predetermined frequency range; and T col s T disturbance s ≈ 0 wherein the relationships for isolating the disturbance input from the steering wheel utilize a combined feedback and feed-forward compensator such that T disturbance does not have an impact on T col, which isolates the disturbance from the driver, thus rejecting the disturbance. (a) measuring a steering column torque, (T col (s)), and (b) isolating the disturbance input from the steering wheel by following the relationships: T col s T assist s ≈ p s such that the steering system dynamics from T assist to T col is controlled to maintain the original steering feel, where p(s) is the nominal system model from T assist to T col within the predetermined frequency range; and T col s T disturbance s ≈ 0 wherein the relationships for isolating the disturbance input from the steering wheel utilize a combined feedback and feed-forward compensator such that T disturbance does not have an impact on T col, which isolates the disturbance from the driver, thus rejecting the disturbance.
A stator vane assembly comprising: a plurality of vanes arranged in a circumferential array; a radially proximal mounting portion; and a radially distal mounting portion; each of the plurality of vanes extending radially between the radially proximal mounting portion and the radially distal mounting portion; each of the plurality of vanes being pivotally mounted between the radially proximal mounting portion and the radially distal mounting portion; the plurality of vanes being movable between a first arrangement allowing gas to flow across the vanes, and a second arrangement blocking gas flow across the vanes; wherein a pivot axis of each of the plurality of vanes is offset from the line of aerodynamic centre of pressure of the vane towards a trailing edge of the vane; and characterised in that the stator vane assembly further comprises a first latching mechanism that holds the plurality of vanes in the first arrangement and, upon receipt of a signal, releases the plurality of vanes so that the gas flow through the vane assembly causes the plurality of vanes to move from the first arrangement to the second arrangement, in which gas flow through the stator vane assembly is blocked. a plurality of vanes arranged in a circumferential array; a radially proximal mounting portion; and a radially distal mounting portion;
A centrifugal assembly for separation of buoyant material, comprising: a tube (12; 112; 212) configured for containing a floatation fluid and a sample of matter to be separated, wherein the tube (12; 112; 212) is elongated with respect to an axis and includes an open upper end and a closed lower end; a meniscus-forming device (14; 114; 214) engageable with and movable along the tube (12; 112; 212) with respect to the axis, the device (14; 114; 214) comprising a sleeve (52; 124) configured for sealing engagement with an interior surface of the tube (12; 112; 212), the sleeve (52; 124) including an interior region and an open upper end at which a meniscus is formable, and a filter element (56; 136; 232) disposed to prevent passage of material of a size greater than openings in the filter element (56; 136; 232) into at least a portion of the interior region of the sleeve (52; 124); and a collector/mixer device comprising a coring chamber, a squeezable member, and a hollow stem connecting the coring chamber and the squeezable member to allow fluid flow to and from the coring chamber upon squeezing of the squeezable member, the collector/mixer device configured to fit within the tube (12; 112; 212), the coring chamber configured to fit over a mixing post at the bottom of the tube (12; 112; 212), when the meniscus-forming device (14; 114; 214) is not engaged with the tube (12; 112; 212). a tube (12; 112; 212) configured for containing a floatation fluid and a sample of matter to be separated, wherein the tube (12; 112; 212) is elongated with respect to an axis and includes an open upper end and a closed lower end; a meniscus-forming device (14; 114; 214) engageable with and movable along the tube (12; 112; 212) with respect to the axis, the device (14; 114; 214) comprising a sleeve (52; 124) configured for sealing engagement with an interior surface of the tube (12; 112; 212), the sleeve (52; 124) including an interior region and an open upper end at which a meniscus is formable, and a filter element (56; 136; 232) disposed to prevent passage of material of a size greater than openings in the filter element (56; 136; 232) into at least a portion of the interior region of the sleeve (52; 124); and a collector/mixer device comprising a coring chamber, a squeezable member, and a hollow stem connecting the coring chamber and the squeezable member to allow fluid flow to and from the coring chamber upon squeezing of the squeezable member, the collector/mixer device configured to fit within the tube (12; 112; 212), the coring chamber configured to fit over a mixing post at the bottom of the tube (12; 112; 212), when the meniscus-forming device (14; 114; 214) is not engaged with the tube (12; 112; 212).
A wearable antenna assembly to facilitate communication with a swallowed in-vivo device, comprising: a posterior assembly comprising: a flat posterior element comprising: a flat, electrically insulating, posterior base comprising a lateral portion having a lateral line, and at least a first protrusion continuing from said lateral portion and extending away from said lateral line, and a first antenna element formed in said first protrusion; and a wearable belt to which the posterior antenna assembly is attachable, wherein the at least first protrusion is configured such that, when the belt is worn, the first antenna element is situated adjacent to or in front of a first of the two greater sciatic notches of the pelvis such that the first antenna element is configured to receive a signal from said in-vivo device after said signal travels through said first greater sciatic notch. a posterior assembly comprising: a flat posterior element comprising: a flat, electrically insulating, posterior base comprising a lateral portion having a lateral line, and at least a first protrusion continuing from said lateral portion and extending away from said lateral line, and a first antenna element formed in said first protrusion; and a wearable belt to which the posterior antenna assembly is attachable, a flat posterior element comprising: a flat, electrically insulating, posterior base comprising a lateral portion having a lateral line, and at least a first protrusion continuing from said lateral portion and extending away from said lateral line, and a first antenna element formed in said first protrusion; and a flat, electrically insulating, posterior base comprising a lateral portion having a lateral line, and at least a first protrusion continuing from said lateral portion and extending away from said lateral line, and a first antenna element formed in said first protrusion; and a wearable belt to which the posterior antenna assembly is attachable, wherein the at least first protrusion is configured such that, when the belt is worn, the first antenna element is situated adjacent to or in front of a first of the two greater sciatic notches of the pelvis such that the first antenna element is configured to receive a signal from said in-vivo device after said signal travels through said first greater sciatic notch.
A charging valve for use in a pressure vessel in an aircraft landing gear comprising: a valve stem having a first and second end and a channel extending therebetween; a pressure-sensing device received within the channel at the first end and operable to measure the pressure of the pressure vessel; and a receptacle received within the channel between the pressure-sensing device and the second end, the receptable operable to be in communication with the pressure-sensing device and configured to allow fluid to flow through the valve, and the receptacle also operable to be electrically connected to a measuring device at the second end for communicating a pressure reading from the pressure-sensing device to the measuring device, wherein the pressure-sensing device comprises at least one wire extending from one end in electrical contact with the receptacle. a valve stem having a first and second end and a channel extending therebetween; a pressure-sensing device received within the channel at the first end and operable to measure the pressure of the pressure vessel; and a receptacle received within the channel between the pressure-sensing device and the second end, the receptable operable to be in communication with the pressure-sensing device and configured to allow fluid to flow through the valve, and the receptacle also operable to be electrically connected to a measuring device at the second end for communicating a pressure reading from the pressure-sensing device to the measuring device,
A method of cargo handling by a spreader including a distance sensor (308a, 308b) transmitting optical signals, the method comprising: handling cargo (312, 314) that includes a plurality of interconnected sides (312a, 312b); selecting directions for transmitting optical signals; measuring distances by reflected optical signals transmitted in the selected directions; characterized in that the method comprises determining on the basis of the measured distances a reference line that matches a shape of at least one of the interconnected sides (312a, 312b) of the cargo (312, 314) for compensating a movement of the distance sensor. handling cargo (312, 314) that includes a plurality of interconnected sides (312a, 312b); selecting directions for transmitting optical signals; measuring distances by reflected optical signals transmitted in the selected directions; characterized in that the method comprises determining on the basis of the measured distances a reference line that matches a shape of at least one of the interconnected sides (312a, 312b) of the cargo (312, 314) for compensating a movement of the distance sensor.
A method for using a communications device comprising an UPnP control point device to effectuate actions in other UPnP devices within a UPnP environment, comprising: defining a message type for UPnP control messages in the form of short messaging service messages, email messages or multimedia message service messages; receiving, at the communications device, a short messaging service message, or email message, or multimedia message service message from a user communications device located remote to the UPnP environment, the UPnP control point device located within the UPnP environment; when the message is of the defined message type, handing the message over to a UPnP control point interface of the UPnP control point device; and transmitting, using the UPnP control point interface of the UPnP control point device, one or more instructions to at least one of the other UPnP devices in accordance with user-input information in the received control message, the transmitted instructions defining actions to be performed by the at least one other UPnP device. messaging service messages, email messages or multimedia message service messages; receiving, at the communications device, a short messaging service message, or email message, or multimedia message service message from a user communications device located remote to the UPnP environment, the UPnP control point device located within the UPnP environment; when the message is of the defined message type, handing the message over to a UPnP control point interface of the UPnP control point device; and transmitting, using the UPnP control point interface of the UPnP control point device, one or more instructions to at least one of the other UPnP devices in accordance with user-input information in the received control message, the transmitted instructions defining actions to be performed by the at least one other UPnP device.
A hydrostatic seal configured to be disposed between relatively rotatable components, the seal comprising: a base; a seal housing; a shoe operatively coupled to the base and extending axially from a forward end to an aft end; and a plurality of teeth extending radially from a sealing surface of the shoe, one of the teeth being a longest tooth that extends furthest radially from the sealing surface and having a radial tooth tip, and a ramp extending from the forward end of the shoe to the radial tooth tip, characterized by: an axial distance from a forward end of the shoe to the longest tooth being greater than a radial distance from the radial tooth tip to the sealing surface. a base; a seal housing; a shoe operatively coupled to the base and extending axially from a forward end to an aft end; and a plurality of teeth extending radially from a sealing surface of the shoe, one of the teeth being a longest tooth that extends furthest radially from the sealing surface and having a radial tooth tip, and a ramp extending from the forward end of the shoe to the radial tooth tip,
An inductive device (15,27) intended to be connected with a multiple phase alternating current power network in connection with a zero voltage point of the power network, which device comprises a coil (17,35) having an inductance and which is adapted to be connected between the power network and an earth potential, wherein the device is designed to allow a reactive current through the coil in connection with a possible earth fault, characterized in that said coil (17,35) comprises a cable (19,37,89) comprising an inner electrical conductor (21,39) and a first insulating casing (23,41) arranged around the inner electrical conductor, which cable is flexible and wound into at least one turn of the coil.
A method for producing N-benzylacrylamide comprising an amidation process that causes diacrylic anhydride to react with benzylamine in a solvent to obtain N-benzylacrylamide.
A single-fill syringe for multi-component materials, comprising a mixer housing, a mixing element, a multi-component cartridge and a mixing head, the mixing head being arranged at least partly within the mixer housing and adjacent to the multi-component cartridge, wherein the mixing head is arranged moveable in an axial direction of the syringe between at least two positions, the at least two positions comprising a sealed position and a dispensing position, wherein the axial movement of the mixing head is brought about by a rotation of at least a part of the mixer housing (12; 12b) relative to the multi-component cartridge, and wherein the mixing head is axially displaced in a direction opposite to a dispensing direction on a displacement of the mixing head from the sealed position into the dispensing position, characterized by the activation of the syringe taking place by the rotation of the at least part of the mixer housing (12; 12b) relative to the multi-component cartridge to displace at least a part of the mixer housing and the mixing head from the sealed position into the dispensing position, and with at least a part of a base of the mixing head being configured as a seal adapted for sealing outlets of the multi-component cartridge when the mixing head is in the sealed position.
An artificial turf system comprising: a resilient layer; an artificial grass layer comprising a substrate and pile fibres upstanding from the substrate; an infill layer, disposed on the substrate and interspersed between the pile fibres, the infill layer consisting of particles comprising smooth, hard granules having a mean size of between 2 mm and 4 mm and infill particulates, whereby the granules have a surface hardness of greater than Shore D 45, characterised in that the number of particles within the defined size range of between 2 and 4 mm is given by D90 for the upper limit and D80 for the lower limit. a resilient layer; an artificial grass layer comprising a substrate and pile fibres upstanding from the substrate; an infill layer, disposed on the substrate and interspersed between the pile fibres, the infill layer consisting of particles comprising smooth, hard granules having a mean size of between 2 mm and 4 mm and infill particulates, whereby the granules have a surface hardness of greater than Shore D 45, characterised in that the number of particles within the defined size range of between 2 and 4 mm is given by D90 for the upper limit and D80 for the lower limit.
A bone cement comprising: a first component in the form of acrylic polymer beads, and a second component in the form of a liquid monomer, characterised in that the acrylic polymer of the first component has an average molecular weight of greater than 180,000 Dalton and contains a portion whose molecular weight is greater than 600,000 Dalton, in which contacting the first component and the second component produces a mixture which attains a viscosity greater than 900 Pa.s within an initial period of about 180 seconds following initial contact of the first and second components, the viscosity being measured using a capillary extrusion rheometer for measuring an applied force acting on a piston to displace the mixture in a capillary tube at a constant displacement rate, the measurements being performed at an average temperature of 22.3 °C and a constant displacement rate of 3 mm.min -1, and in which the mixture exhibits a working time in which the viscosity of the cement changes by less than 20% during a period of five minutes after the mixture attains a viscosity greater than 900 Pa.s, and is suitable for in vivo use. a first component in the form of acrylic polymer beads, and a second component in the form of a liquid monomer, characterised in that the acrylic polymer of the first component has an average molecular weight of greater than 180,000 Dalton and contains a portion whose molecular weight is greater than 600,000 Dalton, in which contacting the first component and the second component produces a mixture which attains a viscosity greater than 900 Pa.s within an initial period of about 180 seconds following initial contact of the first and second components, the viscosity being measured using a capillary extrusion rheometer for measuring an applied force acting on a piston to displace the mixture in a capillary tube at a constant displacement rate, the measurements being performed at an average temperature of 22.3 °C and a constant displacement rate of 3 mm.min -1, and in which the mixture exhibits a working time in which the viscosity of the cement changes by less than 20% during a period of five minutes after the mixture attains a viscosity greater than 900 Pa.s, and is suitable for in vivo use.
Linear actuator, in particular for a motor vehicle, comprising - a coupling rod couplable with a linearly movable component and linearly movable relative to an actuator housing, - an actuator device for linear adjustment of the coupling rod, - a linear magnetic position sensor for detecting the position of the coupling rod relative to the actuator housing, - wherein the position sensor comprises a magnetic field generating unit for generating a magnetic field, the magnetic field generating unit comprising two permanent magnets, - wherein the position sensor comprises a Hall sensor positioned in an area of a magnetic field forming a linear measuring section, wherein the Hall sensor and the magnetic field generating unit are linearly movable relative to each other along a longitudinal direction so as to position the Hall sensor within the measuring section, characterized in that - the permanent magnets are polarized in a transverse direction perpendicular to the longitudinal direction, - the permanent magnets are positioned spaced apart from each other in the longitudinal direction, - each pole of the first permanent magnet is connected to a pole of the second permanent magnet by a respective magnetic conductor element, - the measuring section within which the Hall sensor may be linearly positioned is shorter in the longitudinal direction than an inter-magnet distance between the permanent magnets, - the measuring section extends in the longitudinal direction over a maximum of 70% of the inter-magnet distance. - a coupling rod couplable with a linearly movable component and linearly movable relative to an actuator housing, - an actuator device for linear adjustment of the coupling rod, - a linear magnetic position sensor for detecting the position of the coupling rod relative to the actuator housing, - wherein the position sensor comprises a magnetic field generating unit for generating a magnetic field, the magnetic field generating unit comprising two permanent magnets, - wherein the position sensor comprises a Hall sensor positioned in an area of a magnetic field forming a linear measuring section, wherein the Hall sensor and the magnetic field generating unit are linearly movable relative to each other along a longitudinal direction so as to position the Hall sensor within the measuring section, - the permanent magnets are polarized in a transverse direction perpendicular to the longitudinal direction, - the permanent magnets are positioned spaced apart from each other in the longitudinal direction, - each pole of the first permanent magnet is connected to a pole of the second permanent magnet by a respective magnetic conductor element, - the measuring section within which the Hall sensor may be linearly positioned is shorter in the longitudinal direction than an inter-magnet distance between the permanent magnets, - the measuring section extends in the longitudinal direction over a maximum of 70% of the inter-magnet distance.