mhurhangee/ep-ind-claims huggingface dataset:
A signal transmission method, comprising: determining a first time-frequency resource, wherein the first time-frequency resource is a first candidate resource in a plurality of candidate resources, wherein a candidate resource is a resource that includes one or more time-frequency resource subsets selected based on a specific rule; obtaining a second time-frequency resource and a third time-frequency resource based on the first time-frequency resource and a preset rule, wherein the third time-frequency resource comprises at least one resource element, RE, at a predefined location in the first time-frequency resource, the second time-frequency resource comprises a resource other than the third time-frequency resource in the first time-frequency resource, the preset rule indicates the predefined location, the second time-frequency resource is used to carry a beamformed control channel, and the third time-frequency resource is used to carry a reference signal of the beamformed control channel; and transmitting the beamformed control channel and the reference signal of the beamformed control channel to a terminal device by using the second time-frequency resource for transmitting the beamformed control channel and the third time-frequency resource for transmitting the reference signal of the beamformed control channel. determining a first time-frequency resource, wherein the first time-frequency resource is a first candidate resource in a plurality of candidate resources, wherein a candidate resource is a resource that includes one or more time-frequency resource subsets selected based on a specific rule; obtaining a second time-frequency resource and a third time-frequency resource based on the first time-frequency resource and a preset rule, wherein the third time-frequency resource comprises at least one resource element, RE, at a predefined location in the first time-frequency resource, the second time-frequency resource comprises a resource other than the third time-frequency resource in the first time-frequency resource, the preset rule indicates the predefined location, the second time-frequency resource is used to carry a beamformed control channel, and the third time-frequency resource is used to carry a reference signal of the beamformed control channel; and transmitting the beamformed control channel and the reference signal of the beamformed control channel to a terminal device by using the second time-frequency resource for transmitting the beamformed control channel and the third time-frequency resource for transmitting the reference signal of the beamformed control channel.
Recombinant cells capable of producing mevalonate, wherein the cells comprise one or more heterologous nucleic acids encoding a polypeptide having phosphoketolase activity and one or more heterologous nucleic acids encoding one or more polypeptides of the upper mevalonate pathway, wherein culturing of said recombinant cells in a suitable medium provides for the production of mevalonate.
An electric pulse generator, including an electric discharge switch, the electric discharge switch including at least one piston and a chamber in which the or each piston is capable of moving, a propellant gas-generating trigger for moving the or each piston located in proximity to an end of the or each piston, at least one punch rigidly connected to the other end of the or each piston, at least one stack of layers formed from at least one pair of electrodes separated by a layer of dielectric material, the or each stack being located on the side of one or more punches, the or each punch being intended to cooperate with at least one pair of electrodes, the electrodes (6.1, 6.2) of said pair being intending to be brought to different potentials before moving the piston carrying the punch intended to cooperate with said pair of electrodes, so that when said piston is speeded up by the gas generated by the propellant gas-generated trigger, it punches the layer of dielectric material separating the electrodes of said pair, leading to the breakdown of the dielectric material and the occurrence of an electric discharge between the electrodes (6.1, 6.2) of said pair, the electric pulse generator being intended to power a load, the electric pulse generator further including an energy storage device (12.1, 12.2) associated with the or each pair of electrodes (6.01, 6.02) of the electric discharge switch in at least one series connection, the load or each load being intended to be connected in parallel with the or each series connection.
A power driver comprising: a housing; a tool chuck having a chuck body mounted for rotation on the housing and supporting threadless chuck jaws, and a chuck drive shaft securely connected to an output shaft of the power driver and mounted for rotation on the chuck body; characterized by a sleeve mounted on the tool chuck for adjustment into a DRILL DRIVE MODE to rotationally lock together the chuck body and the chuck drive shaft, and a CHUCK MODE to rotationally lock together the chuck body and the housing. a housing; a tool chuck having a chuck body mounted for rotation on the housing and supporting threadless chuck jaws, and a chuck drive shaft securely connected to an output shaft of the power driver and mounted for rotation on the chuck body; characterized by a sleeve mounted on the tool chuck for adjustment into a DRILL DRIVE MODE to rotationally lock together the chuck body and the chuck drive shaft, and a CHUCK MODE to rotationally lock together the chuck body and the housing. a chuck body mounted for rotation on the housing and supporting threadless chuck jaws, and a chuck drive shaft securely connected to an output shaft of the power driver and mounted for rotation on the chuck body; characterized by a sleeve mounted on the tool chuck for adjustment into a DRILL DRIVE MODE to rotationally lock together the chuck body and the chuck drive shaft, and a CHUCK MODE to rotationally lock together the chuck body and the housing.
A cold plate comprising: an enclosure having a base, a lid, an inlet and an outlet; a base plate forming the enclosure base, where the base plate includes an island; and a plurality of pins within the enclosure extending from the base plate toward the enclosure lid, where each pin has a length and a cross sectional profile with an orientation, and where the cross sectional profile orientation changes along the pin length characterized in that the pin has a spiral appearance for at least a portion of the pin length. an enclosure having a base, a lid, an inlet and an outlet; a base plate forming the enclosure base, where the base plate includes an island; and a plurality of pins within the enclosure extending from the base plate toward the enclosure lid, where each pin has a length and a cross sectional profile with an orientation, and where the cross sectional profile orientation changes along the pin length characterized in that the pin has a spiral appearance for at least a portion of the pin length.
A serial, half-duplex start/stop event detection circuit comprising: a serial data input; a serial clock input; a stop detection flip-flop clocked by the serial data input that takes the serial clock input as a stop data input and generates a stop signal output indicative of a stop event having been detected; a start detection flip-flop clocked by an inverted copy of the serial data input that takes the serial clock input as a start data input and generates a start signal output indicative of a start event having been detected; a first buffer flip-flop clocked by an inverted copy of the serial clock input that generates a first delayed start signal output; and a second buffer flip-flop clocked by the serial clock input that takes the first delayed start signal output as a second buffer data input and generates a second delayed start signal output, wherein the first buffer flip-flop takes the start signal output as a first buffer data input and the second delayed start signal output is arranged to reset the start detection flip-flop. a serial data input; a serial clock input; a stop detection flip-flop clocked by the serial data input that takes the serial clock input as a stop data input and generates a stop signal output indicative of a stop event having been detected; a start detection flip-flop clocked by an inverted copy of the serial data input that takes the serial clock input as a start data input and generates a start signal output indicative of a start event having been detected; a first buffer flip-flop clocked by an inverted copy of the serial clock input that generates a first delayed start signal output; and a second buffer flip-flop clocked by the serial clock input that takes the first delayed start signal output as a second buffer data input and generates a second delayed start signal output, wherein the first buffer flip-flop takes the start signal output as a first buffer data input and the second delayed start signal output is arranged to reset the start detection flip-flop.
Method for operating a household appliance, wherein the method comprises the following steps: - docking a portable operating unit to the household appliance, the portable operating unit having a screen; - identifying the household appliance by means of the portable operating unit; - configuring the portable operating unit for operating said household appliance only, a corresponding operating surface for operating said household appliance only being displayed on the screen of the operating unit; - undocking the portable operating unit from the household appliance and thereby - switching off the household appliance. - docking a portable operating unit to the household appliance, the portable operating unit having a screen; - identifying the household appliance by means of the portable operating unit; - configuring the portable operating unit for operating said household appliance only, a corresponding operating surface for operating said household appliance only being displayed on the screen of the operating unit; - undocking the portable operating unit from the household appliance and thereby - switching off the household appliance.
Method for producing a support for producing a semiconductor structure based on group III nitrides, characterized in that the method comprises the steps of: - forming a buffer layer on a substrate, said buffer layer comprising an upper layer based on group III nitrides, - depositing a crystalline layer on the buffer layer, said crystalline layer being deposited from silicon atoms so as to cover the entire surface of the upper layer based on group III nitrides, said crystalline layer having a triple periodicity of silicon atoms in the crystallographic direction such that a diffraction image of said crystalline layer obtained by grazing-incidence diffraction of electrons in the direction has: - a central line (0, 0) and integer order lines (0, -1) and (0, 1), - two fractional order diffraction lines (0, -1/3) and (0, -2/3) between the central line (0, 0) and the integer order line (0, -1), and - two fractional order diffraction lines (0, 1/3) and (0, 2/3) between the central line (0, 0) and the integer order line (0, 1), the method being characterized in that said crystalline layer depositing step is interrupted at an instant corresponding to a maximum luminous intensity of the intermediate fractional order lines of a diffraction image in the crystallographic direction. - forming a buffer layer on a substrate, said buffer layer comprising an upper layer based on group III nitrides, - depositing a crystalline layer on the buffer layer, said crystalline layer being deposited from silicon atoms so as to cover the entire surface of the upper layer based on group III nitrides, said crystalline layer having a triple periodicity of silicon atoms in the crystallographic direction such that a diffraction image of said crystalline layer obtained by grazing-incidence diffraction of electrons in the direction has: - a central line (0, 0) and integer order lines (0, -1) and (0, 1), - two fractional order diffraction lines (0, -1/3) and (0, -2/3) between the central line (0, 0) and the integer order line (0, -1), and - two fractional order diffraction lines (0, 1/3) and (0, 2/3) between the central line (0, 0) and the integer order line (0, 1),
A heating station for heating a metal sheet blank, comprising a heating chamber, lower heating elements arranged in the heating chamber below a metal sheet blank when in a heating position, and configured to provide radiation heating towards the metal sheet blank, upper heating elements arranged in the heating chamber above the metal sheet blank when in the heating position, and configured to provide radiation heating towards the metal sheet blank, an upper mask arranged in the heating chamber between the upper heating elements and the metal sheet blank, adapted in shape and size to, when in the heating position, block radiation heating from reaching at least a first portion of the metal sheet blank, and to allow radiation heating to reach at least a second portion of the metal sheet blank and heat the same, and a lower mask arranged in the heating chamber between the lower heating elements and the metal sheet blank, adapted in shape and size to, when in the heating position, block the radiation heating from reaching at least a third portion of the metal sheet blank, and to allow radiation heating to reach at least a fourth portion of the metal sheet blank and heat the same, wherein the lower mask comprises a plurality of support projections projecting from a main surface of the lower mask towards the metal sheet blank when in a heating position, which support projections are configured to support a metal sheet blank during heating thereof. a heating chamber, lower heating elements arranged in the heating chamber below a metal sheet blank when in a heating position, and configured to provide radiation heating towards the metal sheet blank, upper heating elements arranged in the heating chamber above the metal sheet blank when in the heating position, and configured to provide radiation heating towards the metal sheet blank, an upper mask arranged in the heating chamber between the upper heating elements and the metal sheet blank, adapted in shape and size to, when in the heating position, block radiation heating from reaching at least a first portion of the metal sheet blank, and to allow radiation heating to reach at least a second portion of the metal sheet blank and heat the same, and a lower mask arranged in the heating chamber between the lower heating elements and the metal sheet blank, adapted in shape and size to, when in the heating position, block the radiation heating from reaching at least a third portion of the metal sheet blank, and to allow radiation heating to reach at least a fourth portion of the metal sheet blank and heat the same, wherein the lower mask comprises a plurality of support projections projecting from a main surface of the lower mask towards the metal sheet blank when in a heating position, which support projections are configured to support a metal sheet blank during heating thereof.
A method for removable plugging in a wellbore which leads to a reservoir, the reservoir having a reservoir temperature, the method comprising: selecting a melting point of a metal alloy based on the reservoir temperature; sealing, while a tubing is above a ground outside of the wellbore, the metal alloy across a cross-sectional area between an interior wall of the tubing and an exterior wall of a sleeve disposed in the tubing, the sleeve having a closed end such that the metal alloy defines a fluid barrier plug against flow of fluid from the reservoir through the cross-sectional area of the tubing when the tubing is disposed within the wellbore; and heating the metal alloy above the melting point while the tubing is disposed within the wellbore such that the metal alloy flows from the tubing and the fluid barrier plug is eliminated. selecting a melting point of a metal alloy based on the reservoir temperature; sealing, while a tubing is above a ground outside of the wellbore, the metal alloy across a cross-sectional area between an interior wall of the tubing and an exterior wall of a sleeve disposed in the tubing, the sleeve having a closed end such that the metal alloy defines a fluid barrier plug against flow of fluid from the reservoir through the cross-sectional area of the tubing when the tubing is disposed within the wellbore; and heating the metal alloy above the melting point while the tubing is disposed within the wellbore such that the metal alloy flows from the tubing and the fluid barrier plug is eliminated.
Use of 2-phenoxyethanol as a disinfectant addition to dithionite-containing disinfectant cleaners for cleaning and disinfecting appliances for the storage and stockage and also for the transport of water, especially of water of drinking-water grade.
Tumble dryer comprising a housing, a process air channel and an opening in the process air channel, which opening can be accessed via an inspection flap in the housing, a circumferential groove being formed on the inner wall of the inspection flap, in which groove a seal is held by means of a leg having a fir tree-like profile, which seal rests circumferentially on the edge of the opening when the inspection flap is closed, the sealing profile comprising a contact region, which extends at least approximately in parallel with the main extension direction of the inspection flap, and a curved sealing lip adjacent thereto, and the inspection flap being designed so as to have an outwardly facing contact face adjacent to the groove, characterised in that the contact face extends at least in parallel with the main extension direction of the inspection flap, and in that the contact region of the sealing profile is arranged so as to extend outwards starting from the leg and to be at least approximately in parallel with the contact face when the inspection flap is open, the curved sealing lip being formed so as to extend in the direction of the contact region and being spaced apart from the contact face in the open position, the edge of the opening pressing against the contact region of the sealing profile in the closed position and in the process pressing the end of the sealing lip on the contact face of the inspection flap such that the seal encloses, together with the contact face of the inspection flap, an air cushion in order to form a hollow chamber seal.
Assembly for a vehicle roof, having: - a first cover with a first cover carrier, - a second cover with a second cover carrier, wherein, in a closed position, the second cover is arranged behind the first cover in a first direction (x), - a guide rail with a guide channel, wherein the first cover and the second cover can each be displaced relative to the guide rail in the first direction (x), wherein: - on an end facing away from the second cover, the first cover carrier has a first slider, which is guided in the guide channel, characterized in that, - on a first end facing towards the first cover, the second cover carrier has a lever with a second slider, which is guided in the guide channel, wherein the lever can be moved relative to the second cover carrier. - a first cover with a first cover carrier, - a second cover with a second cover carrier, wherein, in a closed position, the second cover is arranged behind the first cover in a first direction (x), - a guide rail with a guide channel, wherein the first cover and the second cover can each be displaced relative to the guide rail in the first direction (x), wherein: - on an end facing away from the second cover, the first cover carrier has a first slider, which is guided in the guide channel, characterized in that, - on a first end facing towards the first cover, the second cover carrier has a lever with a second slider, which is guided in the guide channel, wherein the lever can be moved relative to the second cover carrier.
A vehicle having one or more pneumatic wheels, the vehicle comprising: an internal combustion engine including a cylinder and an intake manifold in fluid communication with the cylinder; a tire inflation system configured to direct air into at least one of the one or more pneumatic wheels; an air assembly configured to supply air at a first pressure higher than atmospheric pressure to both the intake manifold and the tire inflation system, wherein the air assembly includes a first compressor stage and a second compressor stage, wherein the air assembly includes an electric motor; characterized in that the electric motor is in operable communication with both the first compressor stage and the second compressor stage, and a wherein the air assembly includes a clutch positioned between and operably connecting the electric motor to one of the first compressor stage and the second compressor stage. an internal combustion engine including a cylinder and an intake manifold in fluid communication with the cylinder; a tire inflation system configured to direct air into at least one of the one or more pneumatic wheels; an air assembly configured to supply air at a first pressure higher than atmospheric pressure to both the intake manifold and the tire inflation system, wherein the air assembly includes a first compressor stage and a second compressor stage, wherein the air assembly includes an electric motor; characterized in that the electric motor is in operable communication with both the first compressor stage and the second compressor stage, and a wherein the air assembly includes a clutch positioned between and operably connecting the electric motor to one of the first compressor stage and the second compressor stage.
An external controller for receiving wireless data from an implantable medical device, comprising: an antenna configured to generate an AC signal in response to wireless data from the implantable medical device, wherein the AC signal comprises at least two data frequencies in the wireless data each indicative of a data state; a receiver circuitry configured to receive the AC signal, wherein the receiver circuitry comprises first and second band pass filters, wherein the first band pass filter receives an output of an amplifier, and wherein the second band pass filter receives an output of the first band pass filter, wherein the first band pass filter is centered at a first frequency, and wherein the second band pass filter is centered at a second frequency, the receiver circuitry further comprising a comparator for receiving an output of the second band pass filter and configured to produce a square wave comprised of the at least two data frequencies; and a microcontroller configured to receive the square wave, wherein the microcontroller is configured to demodulate the square wave to recover the data states by determining timings between transitions in the square wave. an antenna configured to generate an AC signal in response to wireless data from the implantable medical device, wherein the AC signal comprises at least two data frequencies in the wireless data each indicative of a data state; a receiver circuitry configured to receive the AC signal, wherein the receiver circuitry comprises first and second band pass filters, wherein the first band pass filter receives an output of an amplifier, and wherein the second band pass filter receives an output of the first band pass filter, wherein the first band pass filter is centered at a first frequency, and wherein the second band pass filter is centered at a second frequency, the receiver circuitry further comprising a comparator for receiving an output of the second band pass filter and configured to produce a square wave comprised of the at least two data frequencies; and a microcontroller configured to receive the square wave, wherein the microcontroller is configured to demodulate the square wave to recover the data states by determining timings between transitions in the square wave.