mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: generating an amplifier supply voltage (VDD_Amp) configurable to be higher than a boost supply voltage (Vbatt); detecting a sum of a first headroom voltage and a first peak voltage of a tracking supply voltage (Vamp) being greater than the boost supply voltage (Vbatt) when the amplifier supply voltage (VDD_Amp) is not configured to be higher than the boost supply voltage (Vbatt); turning on an enable signal (Ven) for a boost converter in response to said detecting that the sum of the first headroom voltage and the first peak voltage is greater than the boost supply voltage (Vbatt); generating a target voltage (Vtarget) for said boost converter equal to a sum of a second headroom voltage and a second peak value of the tracking supply voltage (Vamp); driving the amplifier supply voltage (VDD_Amp) with the boost converter to the target voltage in response to the enable signal (Ven) being turned on; supplying the amplifier supply voltage (VDD_Amp) to an amplifier configured to output said tracking supply voltage (Vamp); and supplying the tracking supply voltage (Vamp) to a power amplifier configured to amplify an input voltage to generate an output voltage; wherein the amplifier generates the tracking supply voltage (Vamp) from an envelope signal (Env) that tracks the envelope of the power amplifier output voltage. generating an amplifier supply voltage (VDD_Amp) configurable to be higher than a boost supply voltage (Vbatt); detecting a sum of a first headroom voltage and a first peak voltage of a tracking supply voltage (Vamp) being greater than the boost supply voltage (Vbatt) when the amplifier supply voltage (VDD_Amp) is not configured to be higher than the boost supply voltage (Vbatt); turning on an enable signal (Ven) for a boost converter in response to said detecting that the sum of the first headroom voltage and the first peak voltage is greater than the boost supply voltage (Vbatt); generating a target voltage (Vtarget) for said boost converter equal to a sum of a second headroom voltage and a second peak value of the tracking supply voltage (Vamp); driving the amplifier supply voltage (VDD_Amp) with the boost converter to the target voltage in response to the enable signal (Ven) being turned on; supplying the amplifier supply voltage (VDD_Amp) to an amplifier configured to output said tracking supply voltage (Vamp); and supplying the tracking supply voltage (Vamp) to a power amplifier configured to amplify an input voltage to generate an output voltage; wherein the amplifier generates the tracking supply voltage (Vamp) from an envelope signal (Env) that tracks the envelope of the power amplifier output voltage.
A fiber that is formed from a thermoplastic composition, the thermoplastic composition comprising: 70 wt.% or more, based on the total weight of the thermoplastic composition, of at least one rigid renewable polyester having a glass transition temperature of 0°C or more and preferably from 50°C to 75°C, as determined by dynamic mechanical analysis in accordance with ASTM E1640-09; from 1 wt.% to 30 wt.% of at least one polymeric toughening additive based on the weight of the renewable polyester; from 0.1 wt.% to 20 wt.% of at least one interphase modifier based on the weight of the renewable polyester, wherein the interphase modifier is hydrophobic; and at least one polyepoxide modifier; wherein the thermoplastic composition has a morphology in which a plurality of discrete primary domains and voids are dispersed within a continuous phase, the domains containing the polymeric toughening additive and the continuous phase containing the renewable polyester, wherein the voids are located adjacent the domains, wherein the fiber has a density of 1.4 grams per cubic centimeter or less and preferably from 0.5 grams per cubic centimeter to 0.95 grams per cubic centimeter, wherein the average percent volume of the composition that is occupied by the voids is from 20% to 80% per cubic centimeter and preferably from 40% to 60% per cubic centimeter; and wherein the hydrophobic interphase modifier has a contact angle of water in air of 40° or more, as determined according to ASTM D5725-99. 70 wt.% or more, based on the total weight of the thermoplastic composition, of at least one rigid renewable polyester having a glass transition temperature of 0°C or more and preferably from 50°C to 75°C, as determined by dynamic mechanical analysis in accordance with ASTM E1640-09; from 1 wt.% to 30 wt.% of at least one polymeric toughening additive based on the weight of the renewable polyester; from 0.1 wt.% to 20 wt.% of at least one interphase modifier based on the weight of the renewable polyester, wherein the interphase modifier is hydrophobic; and at least one polyepoxide modifier; wherein the thermoplastic composition has a morphology in which a plurality of discrete primary domains and voids are dispersed within a continuous phase, the domains containing the polymeric toughening additive and the continuous phase containing the renewable polyester, wherein the voids are located adjacent the domains, wherein the fiber has a density of 1.4 grams per cubic centimeter or less and preferably from 0.5 grams per cubic centimeter to 0.95 grams per cubic centimeter, wherein the average percent volume of the composition that is occupied by the voids is from 20% to 80% per cubic centimeter and preferably from 40% to 60% per cubic centimeter; and wherein the hydrophobic interphase modifier has a contact angle of water in air of 40° or more, as determined according to ASTM D5725-99.
Lift-height pre-selection method in an industrial truck having a load-receiving device which is guided in a vertically movable fashion on a lifting mast, having a control device, a display device and an operator control element for the control of a lifting movement by an operator, wherein in the case of a lifting movement the control device displays the respective next stored lifting height reached on the display device, and when a switching element which is arranged on the operator control element for the lifting movement is activated this lifting height is selected by the control device, characterized in that the selection by the switching element exploits the fact that a previously occurring activation of the switching element is ended, wherein the function of the switching element for the selection and/or display of the respective next stored lifting height reached is coupled to the simultaneous activation of the operator control element for the lifting movement.
Apparatus for winding and termination of coils wound with at least one electric wire on a core of a dynamo electric machine; the core having a longitudinal axis and a circumferential groove at an axial end of the core for receiving at least a wire on a termination path that extends circumferentially around the longitudinal axis of the core; said apparatus comprising: a wire dispenser; the dispenser having a holding structure for passage of the wire and a wire exit from where the wire reaches the core; means for translating the dispenser with respect to the core during winding or the termination of the leads; wherein the means for translating translates the holding structure along the core for positioning the wire exit adjacent the axial end of the core where the circumferential groove is located; support means for supporting the core; means for rotating the support means for rotating the core around a rotation axis for winding the core; characterized in that it further comprises: a wire deflector; support means for the wire deflector positioned adjacent the axial end of the core where the groove is located; at the end the deflector intercepting and aligning the wire with the circumferential groove, wherein the axial end of the core where the circumferential groove is positioned is opposite to axial end of the core where the wire dispenser initially reaches the core before crossing it to wind the coils and in that the support means for the deflector are housed in a portion of the support means of the core. a wire dispenser; the dispenser having a holding structure for passage of the wire and a wire exit from where the wire reaches the core; means for translating the dispenser with respect to the core during winding or the termination of the leads; wherein the means for translating translates the holding structure along the core for positioning the wire exit adjacent the axial end of the core where the circumferential groove is located; support means for supporting the core; means for rotating the support means for rotating the core around a rotation axis for winding the core; a wire deflector; support means for the wire deflector positioned adjacent the axial end of the core where the groove is located; at the end the deflector intercepting and aligning the wire with the circumferential groove, wherein the axial end of the core where the circumferential groove is positioned is opposite to axial end of the core where the wire dispenser initially reaches the core before crossing it to wind the coils and in that the support means for the deflector are housed in a portion of the support means of the core.
Checkout system arrangement comprising: - a product placement region on which products can be placed, - a product removal region from which products which are located therein can be removed, wherein products can be transported from the product placement region to the product removal region, - a barrier apparatus which subdivides the product removal region at least into a first and a second subregion (110A, 110B), and comprises at least one moving barrier element which, with respect to the product removal region, can selectively be moved at least to a first spatial position, in which products which are transported from the product placement region to the product removal region are guided into the first subregion of the product removal region, and to a second spatial position, in which products which are transported from the product placement region to the product removal region are guided into the second subregion of the product removal region, and - at least one input and/or output apparatus (13, 13', 13") for inputting and/or outputting information, wherein the input and/or output apparatus (13, 13', 13") comprises at least one from the group comprising a display screen, a receipt printer and/or a payment terminal, characterized by a coupling device which changes the spatial position of the input and/or output apparatus (13, 13', 13") depending on a change in the spatial position of the moving barrier element of the barrier apparatus. - a product placement region on which products can be placed, - a product removal region from which products which are located therein can be removed, wherein products can be transported from the product placement region to the product removal region, - a barrier apparatus which subdivides the product removal region at least into a first and a second subregion (110A, 110B), and comprises at least one moving barrier element which, with respect to the product removal region, can selectively be moved at least to a first spatial position, in which products which are transported from the product placement region to the product removal region are guided into the first subregion of the product removal region, and to a second spatial position, in which products which are transported from the product placement region to the product removal region are guided into the second subregion of the product removal region, and - at least one input and/or output apparatus (13, 13', 13") for inputting and/or outputting information, wherein the input and/or output apparatus (13, 13', 13") comprises at least one from the group comprising a display screen, a receipt printer and/or a payment terminal,
An all-solid state secondary battery comprising: a positive electrode active material layer; a negative electrode active material layer; and a solid electrolyte layer; wherein the all-solid state secondary battery is coated with an exterior material layer, and at least a part of the exterior material layer is a rubber-coating layer having a gas transmission coefficient of less than 40 cc.20 μm/m 2 ·24 h atm, measured according to JIS K6275-1, wherein a modulus of elasticity at 25°C, measured according to JIS K6251-1993, of rubber constituting the rubber-coating layer is 0.01 to 100 MPa, and wherein the rubber used for the rubber-coating layer is at least one selected from the group consisting of isoprene rubber, butadiene rubber, styrene·butadiene rubber, butyl rubber, chlorinated butyl rubber, nitrile rubber, nitrile·butadiene rubber, ethylene·propylene rubber, ethylene·propylene·diene rubber, chloroprene rubber, alkyl rubber, chlorosulfonated polyethylene rubber, urethane rubber, silicone rubber, fluorine rubber, ethylene vinyl acetate rubber, epichlorohydrin rubber, and polysulfide rubber. a positive electrode active material layer; a negative electrode active material layer; and a solid electrolyte layer; wherein the all-solid state secondary battery is coated with an exterior material layer, and at least a part of the exterior material layer is a rubber-coating layer having a gas transmission coefficient of less than 40 cc.20 μm/m 2 ·24 h atm, measured according to JIS K6275-1, wherein a modulus of elasticity at 25°C, measured according to JIS K6251-1993, of rubber constituting the rubber-coating layer is 0.01 to 100 MPa, and wherein the rubber used for the rubber-coating layer is at least one selected from the group consisting of isoprene rubber, butadiene rubber, styrene·butadiene rubber, butyl rubber, chlorinated butyl rubber, nitrile rubber, nitrile·butadiene rubber, ethylene·propylene rubber, ethylene·propylene·diene rubber, chloroprene rubber, alkyl rubber, chlorosulfonated polyethylene rubber, urethane rubber, silicone rubber, fluorine rubber, ethylene vinyl acetate rubber, epichlorohydrin rubber, and polysulfide rubber.
An apparatus for the coating of workpieces, in particularly of turbine blades, with at least one loading chamber and at least one process zone, wherein the apparatus comprises at least one manipulator with a holder on which one or several workpieces can be mounted, wherein the holder can at least partially be moved, wherein the manipulator is slidable in the direction of its longitudinal axis, and wherein the holder is movable in the direction of the longitudinal axis of the manipulator from the loading chamber into the process zone, wherein the manipulator comprises a shaft which can be inserted into the loading chamber and is suitable to set the holder and/or workpieces being placed on the holder in motion, characterized in that the loading chamber comprises a feed-through which is arranged on the side of the loading chamber being the far side with respect to the process zone, and wherein the feed-through comprises at least two telescopic segments (140, 150, 160, 170) which are slidable into each other and the shaft passes through the telescopic segments, wherein a first telescopic segment has a smaller diameter than a second telescopic segment, wherein in an intermediate zone between a section of the outer circumference of the first telescopic segment and a section of the inner circumference of the second telescopic segment at least one sealing in the form of one or several sealing rings is arranged.
A vial shield (1; 2) configured to be attached to a vial bottle so as to cover at least a portion of a stopper that seals a mouth of the vial bottle, the vial shield comprising: a shield main body (10; 210) including an annular top plate (11; 211) that is to be laid on top of an upper surface of the stopper, a plurality of legs (15; 215) extending downward from the top plate, a plurality of claws (16; 216) provided in the plurality of legs, the claws being engageable with a flange that surrounds the mouth of the vial bottle; and a valve element (20; 220) that blocks an opening (12; 212) at the center of the top plate, wherein a cut (22; 222) passing through the valve element in a vertical direction is formed in the valve element; characterised in that the vial shield is configured to be attached to the vial bottle to cover only a portion of the flange in a circumferential direction. a shield main body (10; 210) including an annular top plate (11; 211) that is to be laid on top of an upper surface of the stopper, a plurality of legs (15; 215) extending downward from the top plate, a plurality of claws (16; 216) provided in the plurality of legs, the claws being engageable with a flange that surrounds the mouth of the vial bottle; and a valve element (20; 220) that blocks an opening (12; 212) at the center of the top plate, wherein a cut (22; 222) passing through the valve element in a vertical direction is formed in the valve element; characterised in that the vial shield is configured to be attached to the vial bottle to cover only a portion of the flange in a circumferential direction.
A method of adapting a Discontinuous Receptions, DRX, parameter value, the method comprising: monitoring an aggregated traffic profile associated with traffic flow associated with a communication between user equipment and a network, the traffic flow comprising an aggregate of multiple traffic sources, each traffic source comprising a plurality of data packets; identifying a triggering event based upon an observed characteristic of a plurality of the data packets, wherein the observed characteristic comprises the most demanding latency characteristic of any one of the traffic sources contributing to the aggregated traffic profile; and adjusting the DRX parameter value in response to identifying the triggering event. monitoring an aggregated traffic profile associated with traffic flow associated with a communication between user equipment and a network, the traffic flow comprising an aggregate of multiple traffic sources, each traffic source comprising a plurality of data packets; identifying a triggering event based upon an observed characteristic of a plurality of the data packets, wherein the observed characteristic comprises the most demanding latency characteristic of any one of the traffic sources contributing to the aggregated traffic profile; and adjusting the DRX parameter value in response to identifying the triggering event.
A method performed by a user equipment, UE, operating in a wireless communication system, the method comprising: generating, by a session management, SM, non-access stratum, NAS, layer of the UE, a SM message; forwarding, by the SM NAS layer of the UE, the SM message to a mobility management, MM, NAS layer of the UE which is a lower layer of the SM NAS layer; and sending, by the MM NAS layer of the UE to an access and mobility management function, AMF, an uplink, UL, NAS message including the SM message; the method being characterized by receiving, by the MM NAS layer of the UE from the AMF, a NAS message for an MM rejection including a cause of a problem related to routing of the SM message at the AMF; and delivering, by the MM NAS layer of the UE to the SM NAS layer of the UE, information on the problem related to routing of the SM message based on the cause. generating, by a session management, SM, non-access stratum, NAS, layer of the UE, a SM message; forwarding, by the SM NAS layer of the UE, the SM message to a mobility management, MM, NAS layer of the UE which is a lower layer of the SM NAS layer; and sending, by the MM NAS layer of the UE to an access and mobility management function, AMF, an uplink, UL, NAS message including the SM message; the method being characterized by receiving, by the MM NAS layer of the UE from the AMF, a NAS message for an MM rejection including a cause of a problem related to routing of the SM message at the AMF; and delivering, by the MM NAS layer of the UE to the SM NAS layer of the UE, information on the problem related to routing of the SM message based on the cause.
A stent-graft prosthesis with a toroidally expandable sleeve (4; 14; 34) having at least two opening attachments (6, 7; 16, 17; 36, 37) and made of flexible material for internal lining of an arterial aneurysm and with an aortic insert associated with the sleeve (4; 14; 34), in the form of a vascular prosthesis with expandable supporting structures (39, 40) for fixing the aortic insert in the sleeve in the region of the opening attachments (36, 37) thereof, wherein the sleeve (4; 14; 34) is designed as foldable toroid, and the shape of the sleeve in the unfolded state is adapted to the shape of an aneurysm, characterized in that the sleeve (4; 14; 34) is formed at least in the central region of the toroid of a substantially not elastically extensible material.
A support ring comprising: an electronic module assembly - EMA loaded in the support ring, the EMA having one or more electronic components for processing one or more conditions sensed by a sense element assembly, an arm at a first end of the support ring, the arm providing a spring force to the EMA, the arm including: a first portion that extends downwards from a primary plane of the support ring, and a second portion that extends upwards crossing the primary plane of the support ring; and a hook (220a, 220b) at a second end of the support ring, the second end being opposite the first end, the hook providing a reaction force to the EMA that is in reaction to the spring force. an electronic module assembly - EMA loaded in the support ring, the EMA having one or more electronic components for processing one or more conditions sensed by a sense element assembly, an arm at a first end of the support ring, the arm providing a spring force to the EMA, the arm including: a first portion that extends downwards from a primary plane of the support ring, and a second portion that extends upwards crossing the primary plane of the support ring; and a first portion that extends downwards from a primary plane of the support ring, and a second portion that extends upwards crossing the primary plane of the support ring; and a hook (220a, 220b) at a second end of the support ring, the second end being opposite the first end, the hook providing a reaction force to the EMA that is in reaction to the spring force.
A method of configuring at least one device (G1, G2, G3, G4, G5) of an industrial machine, wherein the machine comprises a plurality of separate devices (G1, G2, G3, G4, G5), for example field devices, programmable logic controllers (PLCs) and/or field buses, wherein, by means of an electronic configuration system, - a configuration of at least a first device is read out, wherein the first device is present in the industrial machine and is connected to the configuration system, the method being characterized in that - at least a part of a configuration of a potential device, whose configuration has not been read out, is concluded from the configuration of the first device, wherein a connection is provided between the first device and the potential device, wherein the potential device really exists and is present in the industrial machine, but is not visible to the electronic configuration system, - a reconfiguration of the first device is performed, wherein the configuration of the potential device is taken into account in the reconfiguration, and - the reconfiguration is transmitted to the machine. - a configuration of at least a first device is read out, wherein the first device is present in the industrial machine and is connected to the configuration system, the method being characterized in that - at least a part of a configuration of a potential device, whose configuration has not been read out, is concluded from the configuration of the first device, wherein a connection is provided between the first device and the potential device, wherein the potential device really exists and is present in the industrial machine, but is not visible to the electronic configuration system, - a reconfiguration of the first device is performed, wherein the configuration of the potential device is taken into account in the reconfiguration, and - the reconfiguration is transmitted to the machine.