mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented control method comprising the steps of: providing a locking script in a first blockchain transaction, the locking script comprising at least one instruction arranged to process at least one Boolean input; providing a further blockchain transaction having an unlocking script; processing at least one input signal to provide at least one Boolean input; using the at least one Boolean input to execute the locking and unlocking scripts of the first and further blockchain transactions, wherein the method further comprises monitoring or searching the blockchain or blockchain network to determine the presence or absence of the further transaction and providing a computing resource arranged to influence the behaviour of a device or process based upon: detection of the further transaction within the blockchain or blockchain network. providing a locking script in a first blockchain transaction, the locking script comprising at least one instruction arranged to process at least one Boolean input; providing a further blockchain transaction having an unlocking script; processing at least one input signal to provide at least one Boolean input; using the at least one Boolean input to execute the locking and unlocking scripts of the first and further blockchain transactions, wherein the method further comprises monitoring or searching the blockchain or blockchain network to determine the presence or absence of the further transaction and providing a computing resource arranged to influence the behaviour of a device or process based upon: detection of the further transaction within the blockchain or blockchain network.
An aqueous coating composition comprising an aqueous polymeric dispersion and from 0.1% to 40% by weight, based on the weight of said aqueous polymeric dispersion solids, Phenylphenol-(CH 2 CH 2 O) 2-50 H, isomers thereof, aromatic ring substituted analogues thereof, and mixtures thereof, wherein said aqueous polymeric dispersion is selected from the group consisting of an epoxy emulsion, an aqueous emulsion polymer and a multistage emulsion polymer having, when dry, a void therein, wherein the emulsion polymer includes from 0% to 6% by weight based on the weight of the polymer, of a copolymerized multi-ethylenically unsaturated monomer or from 0% to 15% of a copolymerized monoethylenically-unsaturated acid monomer, based on the weight of the polymer.
A monolithic integrated active/passive waveguide photonic system, the system comprising - a substrate with positioned thereon at least one active waveguide and at least one passive waveguide wherein the at least one active waveguide is a III-V waveguide and wherein the passive waveguide is a silicon or silicon nitride waveguide, - the active waveguide and passive waveguide being monolithic integrated and being arranged for evanescent wave coupling between the waveguides (108, 110), each of the active waveguide and the passive waveguide being positioned so that said active waveguide and passive waveguide at least partly do not overlap with each other both in height direction and in lateral direction with respect to the substrate in a non-overlapping portion, characterized in that the waveguides (108, 110) are positioned so that at least part of the evanescent wave coupling occurs between the waveguides (108, 110) at the non-overlapping portion. - a substrate with positioned thereon at least one active waveguide and at least one passive waveguide wherein the at least one active waveguide is a III-V waveguide and wherein the passive waveguide is a silicon or silicon nitride waveguide, - the active waveguide and passive waveguide being monolithic integrated and being arranged for evanescent wave coupling between the waveguides (108, 110), each of the active waveguide and the passive waveguide being positioned so that said active waveguide and passive waveguide at least partly do not overlap with each other both in height direction and in lateral direction with respect to the substrate in a non-overlapping portion,
A pluggable optical transceiver (160, 400, 450, 600) defined by a multi-source agreement, the pluggable optical transceiver (160, 400, 450, 600) comprising integrated circuitry (404, 460, 500, 604, 700) configured to frame a signal with overhead for operations, administration, maintenance, & provisioning, OAM&P, functions necessary for optical transport networks, OTN, applications and to process OAM&P data within the pluggable optical transceiver, wherein the integrated circuitry (404, 460, 500, 604, 700) is configured to frame the signal with a G.709 frame and the overhead comprises G.709 management data; and a communication mechanism (316, 550, 555, 370, 800) compliant to the multi-source agreement, wherein the communication mechanism (316, 550, 555, 370, 800) is adapted to communicate the processed OAM&P data to a host system; wherein the pluggable optical transceiver (160, 400, 450, 600) with the integrated circuitry (404, 460, 500, 604, 700) and the communication mechanism (316, 550, 555, 370, 800) preserves the specifications for the multi-source agreement defining the pluggable optical transceiver (160, 400, 450, 600); wherein a subset of the G.709 management data is accessible and terminated on the pluggable optical transceiver (160, 400, 450, 600); wherein the subset is selected responsive to limitations in the communication mechanism of the multi-source agreement; and wherein the G.709 management data is communicated through mechanisms fully supported by the multi-source agreement with only software re-design in the host system.
A method for requesting resources for transmitting data on uplink within a mobile communication system utilizing an uplink scheme comprising transmissions on a scheduled shared channel and a contention-based channel, the method comprising the following steps performed by the mobile terminal: transmitting a resource request to a network entity responsible for resource allocation via a contention-based channel; and receiving, in response to the resource request, a resource allocation message granting resources for transmitting data via the scheduled shared channel; characterised in that the method further comprises: receiving, in response to the resource request, a timing adjustment command from the network entity responsible for resource allocation; and realigning uplink timing according to the timing adjustment command. transmitting a resource request to a network entity responsible for resource allocation via a contention-based channel; and receiving, in response to the resource request, a resource allocation message granting resources for transmitting data via the scheduled shared channel; receiving, in response to the resource request, a timing adjustment command from the network entity responsible for resource allocation; and realigning uplink timing according to the timing adjustment command.
Cleaning apparatus for a component arranged within a process air circuit of a household tumble dryer, in particular for a heat exchanger, with a cleaning brush to be moved along the component by means of a drive rod of a drive mechanism, which is to be supplied with a cleaning fluid via a feed line, characterised in that the cleaning brush is embodied as a circular brush rotationally driven around a rotational axis, where the cleaning brush is rotationally driven around the rotational axis by means of the drive rod and a rotational coupling which enables rotation of the cleaning brush is provided for between the feed line and the drive rod.
Descaling device, comprising a storage container having a descaling agent therein for descaling a flow-line system, the storage container comprising a metering unit for dispensing a precise quantity of the descaling agent into the flow-line system and it being possible to insert the storage container into a receptacle corresponding to the storage container, the metering unit or the storage container comprising a closure that opens when the storage container is inserted into the receptacle, characterised in that the closure is or comprises a membrane.
A material for forming an underlayer film for lithography, comprising a compound represented by the following general formula and further comprising an acid generating agent (in formula, each X independently represents an oxygen atom or a sulfur atom, each R 1 independently represents a single bond or a 2n-valent hydrocarbon group having 1 to 30 carbon atoms, the hydrocarbon group may have a cyclic hydrocarbon group, a double bond, a hetero atom, or an aromatic group having 6 to 30 carbon atoms, and each R 2 independently represents a linear, branched or cyclic alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 10 carbon atoms, an alkenyl group having 2 to 10 carbon atoms, or a hydroxyl group, provided that at least one R 2 represents a hydroxyl group, each m is independently an integer of 1 to 6, and n is an integer of 1 to 4).
A method for securely activating or deactivating functionality in a data processing system, the method comprising: organizing a plurality of functional blocks (20, 22, 24) configured to be activated or deactivated into n sets of functional blocks, where n is an integer; assigning a function set identifier (FSID n, FSID n-1......FSID 0) to each set of functional blocks to generate n function set identifiers; determining to activate or deactivate a predetermined set of functional blocks of the n sets of functional blocks; inputting a secret key (K SEC) and a unique identifier (ID DEV) of the data processing system into a key derivation function (40, 64, 70) to generate a first derived key value (K n); iteratively generating, for n iterations (42, 44, 46, 48), additional derived key values (K n-1, K n-2......K 0) using the key derivation function and starting with the first derived key value, wherein a previously derived key value (K n, K n-1......K 0) from a previous iteration is paired with the corresponding function set identifier and input into the key derivation function to produce a next derived key value; using a derived key value corresponding to the predetermined set of functional blocks to authenticate activation or deactivation of the predetermined set of functional blocks; and generating a verification key (K VER) using an n + 1 iteration of the key derivation function, the verification key for verifying the authenticity of the derived key value corresponding to the predetermined set of functional blocks and storing the verification key (K ver) in a memory location of the data processing system. organizing a plurality of functional blocks (20, 22, 24) configured to be activated or deactivated into n sets of functional blocks, where n is an integer; assigning a function set identifier (FSID n, FSID n-1......FSID 0) to each set of functional blocks to generate n function set identifiers; determining to activate or deactivate a predetermined set of functional blocks of the n sets of functional blocks; inputting a secret key (K SEC) and a unique identifier (ID DEV) of the data processing system into a key derivation function (40, 64, 70) to generate a first derived key value (K n); iteratively generating, for n iterations (42, 44, 46, 48), additional derived key values (K n-1, K n-2......K 0) using the key derivation function and starting with the first derived key value, wherein a previously derived key value (K n, K n-1......K 0) from a previous iteration is paired with the corresponding function set identifier and input into the key derivation function to produce a next derived key value; using a derived key value corresponding to the predetermined set of functional blocks to authenticate activation or deactivation of the predetermined set of functional blocks; and generating a verification key (K VER) using an n + 1 iteration of the key derivation function, the verification key for verifying the authenticity of the derived key value corresponding to the predetermined set of functional blocks and storing the verification key (K ver) in a memory location of the data processing system.
A light bar, comprising: a linear body having a first surface and a first end and a second end ends; a light source disposed in said linear body and arranged and constructed to emit light through said first surface; and a first connector and a second connector disposed at said first end and said second end, respectively, said first connector and said second connector extending perpendicularly from said body, said first connector and said second connector shaped to form an interference fit with a linear power bar to attach said body to the linear power bar and provide power from the linear power bar, characterized in that said first connector and said second connector each include a base forming two channels with a wall separating the two channels, the base being formed with a first clip and a second clip, each clip (340A, 340B) extending into one of said channels, wherein the first clip and the second clip are mechanically and electrically connected to a respective first blade and a second blade wherein the first blade and the second blade are provided with connection means (634, 636) at their ends and are fixed to the linear body by slipping into the body and being attached thereto by said connection means (634, 636), and wherein said body is sized and shaped for mounting on the power bar in a first position in which light from said light source is directed upward from said light source and a second position in which light from said light source is directed downward. a linear body having a first surface and a first end and a second end ends; a light source disposed in said linear body and arranged and constructed to emit light through said first surface; and a first connector and a second connector disposed at said first end and said second end, respectively, said first connector and said second connector extending perpendicularly from said body, said first connector and said second connector shaped to form an interference fit with a linear power bar to attach said body to the linear power bar and provide power from the linear power bar, characterized in that said first connector and said second connector each include a base forming two channels with a wall separating the two channels, the base being formed with a first clip and a second clip, each clip (340A, 340B) extending into one of said channels, wherein the first clip and the second clip are mechanically and electrically connected to a respective first blade and a second blade wherein the first blade and the second blade are provided with connection means (634, 636) at their ends and are fixed to the linear body by slipping into the body and being attached thereto by said connection means (634, 636), and wherein said body is sized and shaped for mounting on the power bar in a first position in which light from said light source is directed upward from said light source and a second position in which light from said light source is directed downward.
A transducer (1, 100, 200, 300, 400, 600, 700, 800, 900, 1000, 1100, 1200), comprising: a dielectric layer; a first electrode sheet which is disposed on a first surface side of the dielectric layer; a first main fusion layer which is formed of a fusion material, and the transducer (1, 100, 200, 300, 400, 600, 700, 800, 900, 1000, 1100, 1200) being characterized by a first fusion restriction layer which is partially disposed between the first electrode sheet and the first main fusion layer, restricts the first main fusion layer from being fused to the first electrode sheet, and disposes at least a part of the first electrode sheet outside the first main fusion layer, wherein the first electrode sheet comprises a plurality of first through holes, the first main fusion layer is disposed as at least a part on the first surface side within the dielectric layer or joined as a separate member to the first surface of the dielectric layer, and joins the dielectric layer and the first electrode sheet by fusion of the fusion material, the transducer further comprising a first leading wire, which is electrically connected to a part, said part being disposed outside the first main fusion layer by the first fusion restriction layer within the first electrode sheet. a dielectric layer; a first electrode sheet which is disposed on a first surface side of the dielectric layer; a first main fusion layer which is formed of a fusion material, and the transducer (1, 100, 200, 300, 400, 600, 700, 800, 900, 1000, 1100, 1200) being characterized by a first fusion restriction layer which is partially disposed between the first electrode sheet and the first main fusion layer, restricts the first main fusion layer from being fused to the first electrode sheet, and disposes at least a part of the first electrode sheet outside the first main fusion layer, wherein the first electrode sheet comprises a plurality of first through holes, the first main fusion layer is disposed as at least a part on the first surface side within the dielectric layer or joined as a separate member to the first surface of the dielectric layer, and joins the dielectric layer and the first electrode sheet by fusion of the fusion material, the transducer further comprising a first leading wire, which is electrically connected to a part, said part being disposed outside the first main fusion layer by the first fusion restriction layer within the first electrode sheet.
A radome intended to be installed on an antenna with a concave reflector, comprising: - a first layer, - at least one second layer fastened to said first layer in such a way as to increase the effective thickness of said radome, characterized in that - the surface area of said second layer is less than 100% of the surface area of said first layer, - the surface of the second layer has a different shape from the surface of said first layer, - the second layer is fastened to the first layer by means of a spacer so as to space said second layer from said first layer at least on part of it. - a first layer, - at least one second layer fastened to said first layer in such a way as to increase the effective thickness of said radome, - the surface area of said second layer is less than 100% of the surface area of said first layer, - the surface of the second layer has a different shape from the surface of said first layer, - the second layer is fastened to the first layer by means of a spacer so as to space said second layer from said first layer at least on part of it.
A method of sampling data within a central processing unit CPU, the method comprising: monitoring the CPU activity: determining whether the CPU enters an idle state; executing a dynamic clock and voltage switching DCVS algorithm if the CPU enters the idle state; determining whether a timer has reached a responsivity deadline in response to determining that the CPU did not enter the idle state; increasing the CPU frequency in response to determining that the responsivity deadline was reached, wherein increasing the CPU frequency comprises: determining whether the CPU is operating in a normal mode or in a quality of service mode; and determining an amount by which to increase the CPU frequency based on whether the CPU is operating in the normal mode or in the quality of service mode; determining whether the CPU exits the idle state; and ceasing executing the DCVS algorithm upon the CPU exiting the idle state. monitoring the CPU activity: determining whether the CPU enters an idle state; executing a dynamic clock and voltage switching DCVS algorithm if the CPU enters the idle state; determining whether a timer has reached a responsivity deadline in response to determining that the CPU did not enter the idle state; increasing the CPU frequency in response to determining that the responsivity deadline was reached, wherein increasing the CPU frequency comprises: determining whether the CPU is operating in a normal mode or in a quality of service mode; and determining an amount by which to increase the CPU frequency based on whether the CPU is operating in the normal mode or in the quality of service mode; determining whether the CPU exits the idle state; and ceasing executing the DCVS algorithm upon the CPU exiting the idle state. determining whether the CPU enters an idle state; executing a dynamic clock and voltage switching DCVS algorithm if the CPU enters the idle state; determining whether a timer has reached a responsivity deadline in response to determining that the CPU did not enter the idle state; increasing the CPU frequency in response to determining that the responsivity deadline was reached, wherein increasing the CPU frequency comprises: determining whether the CPU is operating in a normal mode or in a quality of service mode; and determining an amount by which to increase the CPU frequency based on whether the CPU is operating in the normal mode or in the quality of service mode; determining whether the CPU exits the idle state; and ceasing executing the DCVS algorithm upon the CPU exiting the idle state. determining whether the CPU is operating in a normal mode or in a quality of service mode; and determining an amount by which to increase the CPU frequency based on whether the CPU is operating in the normal mode or in the quality of service mode; determining whether the CPU exits the idle state; and ceasing executing the DCVS algorithm upon the CPU exiting the idle state.
Sowing machine with at least one storage container, at least one driven metering device and seed lines leading from the respective metering device to dispensing elements, wherein a compressed air application device for conveying the metered seed grains in the respective seed line opens between the respective metering device and the respective seed line, characterized in that the compressed air application device (13, 14) can be switched on and/or off via a switching device for optionally conveying the metered seed grains in the respective seed line by means of compressed air or by means of gravity without compressed air.
A sealing structure comprising a shaft and a housing that rotate relatively; and a sealing device attached to an annular groove provided on an outer circumference of the shaft, the sealing device being configured to seal an annular gap between the shaft and the housing and to maintain a fluid pressure of a sealing target region configured such that the fluid pressure varies, wherein the sealing device includes a first sealing ring having an endless shape and a second sealing ring characterized in that the first sealing ring is made of a resin, the first sealing ring being closely attached to a sidewall surface on a high-pressure side and a groove bottom surface of the annular groove, the first sealing ring being configured to slide with respect to an inner circumferential surface of a shaft hole of the housing through which the shaft is inserted, and that a second sealing ring is made of a rubbery elastic body, the second sealing ring being closely attached to a sidewall surface on a low-pressure side and the groove bottom surface of the annular groove, as well as to the first sealing ring, the first sealing ring includes a first annular portion that extends to a radially inner side and to a high-pressure side from a radially widthwise middle, and a second annular portion that extends to a radially outer side and to the high-pressure side from the radially widthwise middle, and a first end portion of the first annular portion situated at the radially inner side and a low-pressure side is closely attached to the groove bottom surface of the annular groove, a second end portion of the first annular portion situated at the radially inner side and the high-pressure side is closely attached to the sidewall surface on the high-pressure side of the annular groove, and a third end portion of the second annular portion situated at the radially outer side and the low-pressure side is configured to slide with respect to the inner circumferential surface of the shaft hole, and the second sealing ring is arranged to press the first annular portion toward the high-pressure side and toward the radially outer side.