mhurhangee/ep-ind-claims huggingface dataset:
A network slice deployment method performed by a first network management unit, the method comprising the steps of: • obtaining (S 201) node instance information, wherein the node instance information comprises identifier information of a node instance or a network address of the node instance; • determining (S 202) transport requirement information corresponding to the node instance information, whereby the transport requirement information comprises one or more of the following: a latency and bandwidth; and • sending (S 203) a transport request message to a transport network manager, wherein the transport request message carries the transport requirement information and the node instance information, and the transport request message is used to request the transport network manager to configure a transport resource of the node instance corresponding to the node instance information and corresponding to the transport requirement information. • obtaining (S 201) node instance information, wherein the node instance information comprises identifier information of a node instance or a network address of the node instance; • determining (S 202) transport requirement information corresponding to the node instance information, whereby the transport requirement information comprises one or more of the following: a latency and bandwidth; and • sending (S 203) a transport request message to a transport network manager, wherein the transport request message carries the transport requirement information and the node instance information, and the transport request message is used to request the transport network manager to configure a transport resource of the node instance corresponding to the node instance information and corresponding to the transport requirement information.
A computer program product for enabling limited access to a locked function in a mobile communications device, the computer program product comprising: a least one computer readable medium; and at least one program module, stored on the at least one medium, and operative, upon execution by at least one processor to: maintain a locked function usage accumulator, the locked function usage accumulator comprising a current value and a predetermined limit; receive input to perform a locked function when in a locked mode, compare the accumulator current value to the predetermined limit; and perform, when in the locked mode, the locked function when the accumulator is less than the predetermined limit; wherein the input comprises the associated function input; and wherein the locked function receives and stores image data or sound data. a least one computer readable medium; and at least one program module, stored on the at least one medium, and operative, upon execution by at least one processor to: maintain a locked function usage accumulator, the locked function usage accumulator comprising a current value and a predetermined limit; receive input to perform a locked function when in a locked mode, compare the accumulator current value to the predetermined limit; and perform, when in the locked mode, the locked function when the accumulator is less than the predetermined limit; wherein the input comprises the associated function input; and wherein the locked function receives and stores image data or sound data.
A light-emitting device comprising a body which is at least substantially transparent in the visible spectral range and a light-generating device which is arranged outside the body, wherein a light-emitting region is formed inside the body and wherein there is formed in the body, as a result of the arrangement of a medium having a lower index of refraction, at least in certain portions a substantially polyhedral, cylindrical or conical interface which totally reflects radiation which has been emitted by the light-generating device and entered the body, at least in certain portions, wherein this totally reflected radiation issues from the body so as to at least partly form the light-emitting region, characterized in that the interface forms a cavity inside the body.
An aerosol-generating device (1000, 2000, 3000, 4000) comprising a case (1100, 2100, 3100, 4100) into which a cigarette is insertable, the case (1100, 2100, 3100, 4100) forming a portion of the exterior of the aerosol-generating device (1000, 2000, 3000, 4000) and accommodating a battery, a controller and a heater, characterized by a vaporizer (1200, 2200, 3200, 4200) detachably installed on the case (1100, 2100, 3100, 4100); and a detachment manipulation unit (1300, 2300, 3300, 4300) installed in the case (1100, 2100, 3100, 4100) and configured to perform, according to manipulation by a user, a first operation of maintaining a state in which the vaporizer (1200, 2200, 3200, 4200) is installed on the case (1100, 2100, 3100, 4100) and a second operation of allowing separation of the vaporizer (1200, 2200, 3200, 4200) from the case (1100, 2100, 3100, 4100). a vaporizer (1200, 2200, 3200, 4200) detachably installed on the case (1100, 2100, 3100, 4100); and a detachment manipulation unit (1300, 2300, 3300, 4300) installed in the case (1100, 2100, 3100, 4100) and configured to perform, according to manipulation by a user, a first operation of maintaining a state in which the vaporizer (1200, 2200, 3200, 4200) is installed on the case (1100, 2100, 3100, 4100) and a second operation of allowing separation of the vaporizer (1200, 2200, 3200, 4200) from the case (1100, 2100, 3100, 4100).
A downhole tool extending in a longitudinal direction, comprising: - a tool housing, - an arm assembly movable between a retracted position and a projected position in relation to the tool housing, the arm assembly comprising an arm member connected with the tool housing in one end, - an arm activation assembly arranged in the tool housing for moving the arm assembly between the retracted position and the projected position, and - a pump for circulating hydraulic fluid, characterised in that the arm assembly comprises a hydraulic mechanism (23, 62) arranged in connection with the arm member, and a fluid influx channel provided in the arm member, the fluid influx channel being in fluid communication with the hydraulic mechanism for supplying hydraulic fluid from the pump to the hydraulic mechanism, wherein the hydraulic mechanism is a hydraulic motor, and the fluid influx channel is fluidly connected with the hydraulic motor for supplying hydraulic fluid from the pump to the hydraulic mechanism, and wherein the arm assembly comprises a rotational part connected with the hydraulic motor, whereby the rotational part is rotated by the hydraulic motor to propel the downhole tool in a well. - a tool housing, - an arm assembly movable between a retracted position and a projected position in relation to the tool housing, the arm assembly comprising an arm member connected with the tool housing in one end, - an arm activation assembly arranged in the tool housing for moving the arm assembly between the retracted position and the projected position, and - a pump for circulating hydraulic fluid,
A lacing engine apparatus for an automated footwear platform, the apparatus comprising: a housing including a lace channel for receiving a portion of a lace cable; a drivetrain disposed within the housing, the drivetrain including a motor to deliver rotational input to a worm drive; and a lace take-up mechanism for accumulating a length of lace cable upon activation, the lace take-up mechanism including: an outer rotating disc including a first plurality of rotating spools distributed on a superior surface in a first group on a first side and a second group on a second side, the first plurality of rotating spools adapted to engage the lace cable extending through the lace channel upon rotation of the outer rotating disc; and an inner stationary disc including a second plurality of rotating spools distributed on a superior surface of the inner stationary disc in a third group and a fourth group, the second plurality of rotating spools adapted to engage the lace cable upon rotation of the outer rotating disc. a housing including a lace channel for receiving a portion of a lace cable; a drivetrain disposed within the housing, the drivetrain including a motor to deliver rotational input to a worm drive; and a lace take-up mechanism for accumulating a length of lace cable upon activation, the lace take-up mechanism including: an outer rotating disc including a first plurality of rotating spools distributed on a superior surface in a first group on a first side and a second group on a second side, the first plurality of rotating spools adapted to engage the lace cable extending through the lace channel upon rotation of the outer rotating disc; and an inner stationary disc including a second plurality of rotating spools distributed on a superior surface of the inner stationary disc in a third group and a fourth group, the second plurality of rotating spools adapted to engage the lace cable upon rotation of the outer rotating disc. an outer rotating disc including a first plurality of rotating spools distributed on a superior surface in a first group on a first side and a second group on a second side, the first plurality of rotating spools adapted to engage the lace cable extending through the lace channel upon rotation of the outer rotating disc; and an inner stationary disc including a second plurality of rotating spools distributed on a superior surface of the inner stationary disc in a third group and a fourth group, the second plurality of rotating spools adapted to engage the lace cable upon rotation of the outer rotating disc.
A method of operation performed by a network node that implements a mobility function entity for a core network of a cellular communications network, comprising: receiving (102, 204, 306, 410, 506), from a radio access node of the cellular communications network, first information indicative of one or more tracking areas supported by the radio access node and one or more network slices supported per tracking area by the radio access node; determining (112A, 214A, 316A, 420A, 516A) one or more network slices that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the one or more tracking areas supported by the radio access node; sending (112B, 214B, 316B, 420B, 516B), to the radio access node, second information indicative of the one or more network slices that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of the at least one of the one or more tracking areas supported by the radio access node. receiving (102, 204, 306, 410, 506), from a radio access node of the cellular communications network, first information indicative of one or more tracking areas supported by the radio access node and one or more network slices supported per tracking area by the radio access node; determining (112A, 214A, 316A, 420A, 516A) one or more network slices that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of at least one of the one or more tracking areas supported by the radio access node; sending (112B, 214B, 316B, 420B, 516B), to the radio access node, second information indicative of the one or more network slices that are: (a) supported by the radio access node and the mobility function entity and (b) permitted by one or more network policies, for each of the at least one of the one or more tracking areas supported by the radio access node.
A method for producing a porous material comprising steps of: - (a) preparing a solution of at least one structuring agent having at least two structuring parts assembled by at least one non-covalent reversible type of interaction and of a precursor of mesoporous material, - (b) forming the mesopourous material by inorganic polycondensation, - (c) disassembling the at least two parts of the structuring agent at a low temperature by a modification that is the reverse of step a) of a physico-chemical parameter, - recovering at least 50% by weight of the two non-degraded structuring parts and the mesoporous material, characterized in that - the structuring parts are hydrophilic polymers, water-soluble, chosen from double hydrophilic block copolymers, double hydrophilic graft copolymers, triblock copolymers, comb polymers, graft polymers, statistical copolymers, terpolymers and homopolymers, - said precursor of mesoporous material is chosen from precursors of silica, alumina, silica-alumina, zirconia, titania, aluminum alkoxides, or titanium or zirconium alkoxides or salts, - the weight ratio (structuring part/total mass of precursor material) of step a) extends from 0.20 to 0.65, - during step a) the structuring agent is formed by assembling by micellization in water of the structuring parts, such assembling being induced by modifying at least a physico-chemical parameter chosen among pH and temperature. - (a) preparing a solution of at least one structuring agent having at least two structuring parts assembled by at least one non-covalent reversible type of interaction and of a precursor of mesoporous material, - (b) forming the mesopourous material by inorganic polycondensation, - (c) disassembling the at least two parts of the structuring agent at a low temperature by a modification that is the reverse of step a) of a physico-chemical parameter, - recovering at least 50% by weight of the two non-degraded structuring parts and the mesoporous material, - the structuring parts are hydrophilic polymers, water-soluble, chosen from double hydrophilic block copolymers, double hydrophilic graft copolymers, triblock copolymers, comb polymers, graft polymers, statistical copolymers, terpolymers and homopolymers, - said precursor of mesoporous material is chosen from precursors of silica, alumina, silica-alumina, zirconia, titania, aluminum alkoxides, or titanium or zirconium alkoxides or salts, - the weight ratio (structuring part/total mass of precursor material) of step a) extends from 0.20 to 0.65, - during step a) the structuring agent is formed by assembling by micellization in water of the structuring parts, such assembling being induced by modifying at least a physico-chemical parameter chosen among pH and temperature.
A method of pairing devices (102, 120) in an in vivo analyte monitoring system, the method comprising: activating a sensor control device (102-1, 102-2, 102-3, 102-4) adapted for in vivo analyte sensing, wherein the sensor control device comprises a memory that, prior to activation, has a token stored thereon; providing the token to a second reader device, where the second reader device is a mobile communication device (120-1, 120-2, 120-3, 120-4, 120-5, 120-6); sending, by the second reader device, a communication comprising the token to the sensor control device, where the sensor control device has already interfaced with a first reader device (120-1, 120-2, 120-3, 120-4, 120-5, 120-6); if the token is valid for the sensor control device, then sending, by the sensor control device, data indicative of a sensed analyte level to the second reader device; and characterized in that if the token is not valid for the sensor control device, then sending, by the sensor control device, a response to the second reader device that indicates that the token is not valid. activating a sensor control device (102-1, 102-2, 102-3, 102-4) adapted for in vivo analyte sensing, wherein the sensor control device comprises a memory that, prior to activation, has a token stored thereon; providing the token to a second reader device, where the second reader device is a mobile communication device (120-1, 120-2, 120-3, 120-4, 120-5, 120-6); sending, by the second reader device, a communication comprising the token to the sensor control device, where the sensor control device has already interfaced with a first reader device (120-1, 120-2, 120-3, 120-4, 120-5, 120-6); if the token is valid for the sensor control device, then sending, by the sensor control device, data indicative of a sensed analyte level to the second reader device; and characterized in that if the token is not valid for the sensor control device, then sending, by the sensor control device, a response to the second reader device that indicates that the token is not valid.
The invention is an extraction hood having a body, a control unit and a cover in front of an extraction hood filter that can be opened and closed, a cover connection piece placed on the cover that connects the cover with the body of the extraction hood, a switch to control the extraction hood, a switch attachment that allows the switch to be secured on the cover, a piston as a moving member, with one end connected to the extraction hood body and the other end connected to the cover, enabling the cover to be opened and closed, a piston connection piece that enables the piston to be connected to the cover, characterized by comprising; • a cable channel that enables the transmission of the cables of the control unit on the cover and the piston connection, • a slot on the cable channel where the piston is fixed on the cover, and • a fastener that secures the piston connection to the slot. • a cable channel that enables the transmission of the cables of the control unit on the cover and the piston connection, • a slot on the cable channel where the piston is fixed on the cover, and • a fastener that secures the piston connection to the slot.
A sole support pad for hoofed animal suffering from laminitis or other foot problems characterized in that the sole support pad comprises water-curable resin coating expandable polystyrene balls, wherein the curable resins are fluids having viscosities of 5,000 cps to 500,000 cps.
A method for controlling the draining of wash liquid in a laundry washing machine, said laundry washing machine comprising a tub (2, 2b), draining means (7, 8) for draining wash liquid from said tub (2, 2b), a drum adapted to contain laundry to be washed, and motor means for rotating said drum, said method comprising the steps of: starting a first drain stage, wherein said draining means (7, 8) are activated; measuring a flow of wash liquid drained by said draining means (7, 8); verifying that said flow is higher than a predetermined alarm flow value and lower than a predetermined nominal flow value; said method being characterized by further comprising the step of: starting a second drain stage, wherein said draining means (7, 8) are activated cyclically to carry out up to a predetermined number of drain operations, while said flow remains higher than said alarm flow value and lower than said nominal flow value and there is said wash liquid to be drained. starting a first drain stage, wherein said draining means (7, 8) are activated; measuring a flow of wash liquid drained by said draining means (7, 8); verifying that said flow is higher than a predetermined alarm flow value and lower than a predetermined nominal flow value; said method being characterized by further comprising the step of: starting a second drain stage, wherein said draining means (7, 8) are activated cyclically to carry out up to a predetermined number of drain operations, while said flow remains higher than said alarm flow value and lower than said nominal flow value and there is said wash liquid to be drained. starting a second drain stage, wherein said draining means (7, 8) are activated cyclically to carry out up to a predetermined number of drain operations, while said flow remains higher than said alarm flow value and lower than said nominal flow value and there is said wash liquid to be drained.
A method for treating a biomass hydrolysate solution containing an acid and non-ionic organic compound, the non-ionic organic compound being at least one of a sugar, a soluble sugar, and a soluble alcohol, the method comprising: feeding the hydrolysate solution to a fixed-resin bed of an acid retardation unit, the acid retardation unit comprising a base and a top opposite the base, and the fixed-resin bed incorporating granular resin particles with quaternary ammonium moieties retaining the acid and rejecting the non-ionic organic compound, the granular resin particles having a constant average particle size of 50 μm; and eluting the acid retained in the fixed-resin bed with water to recover a purified acid, wherein more than 90% by weight of the acid in the biomass hydrolysate is recovered. feeding the hydrolysate solution to a fixed-resin bed of an acid retardation unit, the acid retardation unit comprising a base and a top opposite the base, and the fixed-resin bed incorporating granular resin particles with quaternary ammonium moieties retaining the acid and rejecting the non-ionic organic compound, the granular resin particles having a constant average particle size of 50 μm; and eluting the acid retained in the fixed-resin bed with water to recover a purified acid,
RFID transmission circuitry comprising: a transmission module producing a pulsed output having non-uniform pulse amplitudes; a first threshold circuit receiving said pulsed output from said transmission module and providing a pulsed output including only pulses whose amplitude exceeds a first threshold level; a second threshold circuit receiving said pulsed output from said transmission module and providing a pulsed output (C,E) including only pulses whose amplitude exceeds a second threshold level, which is less than said first threshold level; a gate circuit receiving, as a clock input, said pulsed output (C,E) of said second threshold circuit and receiving, as a signal input, said pulsed output of said first threshold circuit, said gate circuit being operative to provide a logic output in response to each clock input, said logic output being responsive to the presence or absence of a signal input pulse thereat; a power amplifier receiving said pulsed output of said transmission module and said logic output from said gate circuit as a gain control input and providing an amplified output responsive to said gain control input; and an antenna which is driven by an input derived from said amplified output. a transmission module producing a pulsed output having non-uniform pulse amplitudes; a first threshold circuit receiving said pulsed output from said transmission module and providing a pulsed output including only pulses whose amplitude exceeds a first threshold level; a second threshold circuit receiving said pulsed output from said transmission module and providing a pulsed output (C,E) including only pulses whose amplitude exceeds a second threshold level, which is less than said first threshold level; a gate circuit receiving, as a clock input, said pulsed output (C,E) of said second threshold circuit and receiving, as a signal input, said pulsed output of said first threshold circuit, said gate circuit being operative to provide a logic output in response to each clock input, said logic output being responsive to the presence or absence of a signal input pulse thereat; a power amplifier receiving said pulsed output of said transmission module and said logic output from said gate circuit as a gain control input and providing an amplified output responsive to said gain control input; and an antenna which is driven by an input derived from said amplified output.