mhurhangee/ep-ind-claims huggingface dataset:
A transmitter device being a soil sensor, comprising: a housing; a cable at least partially housed within the housing and electrically connected to a socket; a sensor electrically coupled with the cable; and a cover at least partially covering the sensor; wherein the socket is disposed outside the housing, and the socket is flexibly coupled to the housing through the cable, wherein the housing includes a channel such that the cable is slidably received within the channel, and characterised in that the channel allows the cable to move freely therein and checks undesired propagation of forces to the cable from the housing. a housing; a cable at least partially housed within the housing and electrically connected to a socket; a sensor electrically coupled with the cable; and a cover at least partially covering the sensor; wherein the socket is disposed outside the housing, and the socket is flexibly coupled to the housing through the cable, wherein the housing includes a channel such that the cable is slidably received within the channel, and characterised in that the channel allows the cable to move freely therein and checks undesired propagation of forces to the cable from the housing.
A method for filtering activated sludge mixed liquor containing solid particles of different sizes, the method utilizing a filtration cake formed only from particles contained in the said activated sludge mixed liquor containing solid particles of different sizes, said solid particles are deposited on a filtration cake support being a porous member allowing liquid to flow through the filtration cake to provide a filtrate, and the method comprising establishment of the filtration cake, the establishment comprising providing - a flow of liquid towards the filtration cake support, the liquid being the activated sludge mixed liquor containing solid particles of different sizes, - a pressure difference across the filtration cake support, to provide a flow of liquid through the filtration cake support; until a filtration cake has been formed, - separating the activated sludge mixed liquor containing solid particles of different sizes into fractions: one fraction containing solid particles above a certain size and one containing smaller solid particles, and - providing a flow of the fraction comprising only the smaller particles towards and through the filtration cake in a direction towards and through the cake support, thereby providing a filtering of the fraction containing smaller solid particles. - a flow of liquid towards the filtration cake support, the liquid being the activated sludge mixed liquor containing solid particles of different sizes, - a pressure difference across the filtration cake support, to provide a flow of liquid through the filtration cake support; until a filtration cake has been formed, - separating the activated sludge mixed liquor containing solid particles of different sizes into fractions: one fraction containing solid particles above a certain size and one containing smaller solid particles, and - providing a flow of the fraction comprising only the smaller particles towards and through the filtration cake in a direction towards and through the cake support, thereby providing a filtering of the fraction containing smaller solid particles.
Diaphragm pump for the volumetric delivery of a fluid, having a working diaphragm for the volumetric delivery of the fluid, which diaphragm, in the installed state, is held between components (30, 31) and is connected to an actuator (10, 12) for executing delivery strokes, wherein the working diaphragm is stabilized in the elastic region by a supporting element (18, 54), wherein the working diaphragm has a sealing bead, characterized in that a swelling space is formed between the working diaphragm and a component which is formed as an intermediate plate, and wherein the swelling space is provided between the sealing bead and a separating rib which is arranged on the intermediate plate.
Body for a valve, comprising a housing designed to receive an actuating motor, said housing having a longitudinal axis and being bounded by a lateral wall having an inner surface designed to guide the motor, the inner surface comprising at least one first guiding zone and one second guiding zone which extend over at least a portion of the height of the housing, the first guiding zone having, in a plane that includes the longitudinal axis, a first acute angle of inclination with respect to the longitudinal axis of the housing, and the inner surface consisting of an alternation of at least one first zone and one second zone, this alternation being in a plane orthogonal to the longitudinal axis, the body being characterized in that the second guiding zone (61, 62) has, in a plane that includes the longitudinal axis, a second angle of inclination with respect to the longitudinal axis of the housing, the first angle of inclination being greater than the second angle of inclination.
A lighting control console for controlling a lighting system, digital adjusting commands being generated in the lighting control console, said adjusting commands being able to be transmitted to the lighting devices of the lighting system via data links, said lighting control console comprising at least one digital processor and at least one digital memory for generating, managing and storing the adjusting commands, and said digital processor and said digital memory being arranged in a console housing, and said lighting control console comprising at least one slide control at which operating commands can be input by the user via linear displacement of a control knob protruding from the upper side of the console housing, and said upper side of the console housing comprising a slit for each slide control, said control knob being connected to said slide control via said slit, characterised in that a tactile sensor system, by means of which it can be detected when the user touches the control knob, is provided at the slide control, wherein the control knob made of an electrically conductive material is electrically contacted to the slide control via a coupling element made of an electrically conductive material.
A method for reducing coke deposits, the method comprising: adding an alcohol to a hydrocarbon fuel to form an alcohol-fuel mixture; heating the alcohol-fuel mixture to a temperature of greater than 426 °C to decompose the alcohol and form water in situ without addition of water from a water/steam supply subsystem to produce a fuel-water mixture having between 0.1% and 2% water by weight; coating a wall surface of a high temperature passage of a fuel system with a carbon-steam gasification catalyst; and delivering the fuel-water mixture to the carbon-steam gasification catalyst, wherein the fuel-water mixture reacts with the carbon-steam gasification catalyst such that coke deposits are prevented from remaining in a space near the carbon-steam gasification catalyst. adding an alcohol to a hydrocarbon fuel to form an alcohol-fuel mixture; heating the alcohol-fuel mixture to a temperature of greater than 426 °C to decompose the alcohol and form water in situ without addition of water from a water/steam supply subsystem to produce a fuel-water mixture having between 0.1% and 2% water by weight; coating a wall surface of a high temperature passage of a fuel system with a carbon-steam gasification catalyst; and delivering the fuel-water mixture to the carbon-steam gasification catalyst, wherein the fuel-water mixture reacts with the carbon-steam gasification catalyst such that coke deposits are prevented from remaining in a space near the carbon-steam gasification catalyst.
A method of wireless packet data mode communications for enabling communication between a source device and one or more target devices comprising: configuring one or more communication parameters on said source device and a base station by engaging in a series of interactive and sequenced communications between said source device and said base station; capturing said one or more communication parameters in a control structure; transmitting said control structure to said one or more target devices; utilizing said control structure to configure said one or more target devices to communicate with said base station; and communicating between said source device and said one or more target devices via said base station, the method being characterised in that: during configuring, the source device informs the base station of its intent to make contact with a particular target device; and the control structure is transmitted to the particular target device prior to the complete configuration of said source device. configuring one or more communication parameters on said source device and a base station by engaging in a series of interactive and sequenced communications between said source device and said base station; capturing said one or more communication parameters in a control structure; transmitting said control structure to said one or more target devices; utilizing said control structure to configure said one or more target devices to communicate with said base station; and communicating between said source device and said one or more target devices via said base station, the method being characterised in that: during configuring, the source device informs the base station of its intent to make contact with a particular target device; and the control structure is transmitted to the particular target device prior to the complete configuration of said source device. during configuring, the source device informs the base station of its intent to make contact with a particular target device; and the control structure is transmitted to the particular target device prior to the complete configuration of said source device.
A hybrid vehicle drive system for use with a first prime mover and a first transmission driven by the first prime mover, the system comprising: a second prime mover coupled to a first rechargeable energy source, a component mechanically coupled to the transmission and coupled to the second prime mover and configured to engage or disengage from the first transmission, wherein the first prime mover is configured to provide power through the first transmission and the component to operate the second prime mover, and the second prime mover is configured to provide power to a drive shaft through the component and the first transmission, the second prime mover being powered by the first rechargeable energy source, the hybrid vehicle drive system being characterized by: an accessory configured to be coupled to the second prime mover, configured so the accessory is operated through the operation of the second prime mover, wherein the accessory is a hydraulic motor or hydraulic pump, wherein a clutch is disposed between the accessory and the second prime mover, wherein the accessory is disconnected from the second prime mover when the clutch is disengaged to reduce friction, wherein the component is a power-take-off, and a second rechargeable power source coupled to the accessory. a second prime mover coupled to a first rechargeable energy source, a component mechanically coupled to the transmission and coupled to the second prime mover and configured to engage or disengage from the first transmission, wherein the first prime mover is configured to provide power through the first transmission and the component to operate the second prime mover, and the second prime mover is configured to provide power to a drive shaft through the component and the first transmission, the second prime mover being powered by the first rechargeable energy source, the hybrid vehicle drive system being characterized by: an accessory configured to be coupled to the second prime mover, configured so the accessory is operated through the operation of the second prime mover, wherein the accessory is a hydraulic motor or hydraulic pump, wherein a clutch is disposed between the accessory and the second prime mover, wherein the accessory is disconnected from the second prime mover when the clutch is disengaged to reduce friction, wherein the component is a power-take-off, and a second rechargeable power source coupled to the accessory. an accessory configured to be coupled to the second prime mover, configured so the accessory is operated through the operation of the second prime mover, wherein the accessory is a hydraulic motor or hydraulic pump, wherein a clutch is disposed between the accessory and the second prime mover, wherein the accessory is disconnected from the second prime mover when the clutch is disengaged to reduce friction, wherein the component is a power-take-off, and a second rechargeable power source coupled to the accessory.
A device for dispensing a particulated material comprising: - at least two rotary valves (100, 100'), each having a stator (10, 10') provided with an inlet (12, 12') and outlet (14, 14') for the particulated material, and a rotor (20, 20') seated in the stator (10, 10') sealing the inlet (12, 12') from the outlet (14, 14'), each rotor disposed with at least one chamber (22, 22') for receiving and dispensing the particulated material as the rotor (20, 20') turns around its central axis (A-A'), - wherein the rotors (20, 20') are configured to rotate synchronously, - wherein the chambers (22, 22') of at least two rotors (20, 20') are configured to dispense particulated material asynchronously, and - wherein the rotors (20, 20') of the device are configured such that the combined flow of particulated material is essentially continuous. - at least two rotary valves (100, 100'), each having a stator (10, 10') provided with an inlet (12, 12') and outlet (14, 14') for the particulated material, and a rotor (20, 20') seated in the stator (10, 10') sealing the inlet (12, 12') from the outlet (14, 14'), each rotor disposed with at least one chamber (22, 22') for receiving and dispensing the particulated material as the rotor (20, 20') turns around its central axis (A-A'), - wherein the rotors (20, 20') are configured to rotate synchronously, - wherein the chambers (22, 22') of at least two rotors (20, 20') are configured to dispense particulated material asynchronously, and - wherein the rotors (20, 20') of the device are configured such that the combined flow of particulated material is essentially continuous.
A method for producing a milk replacement product, comprising: comminuting portions of plant parts from real nuts that include protein and fat like hazel nuts, walnuts, chestnuts, macadamia nuts, hemp and beechnuts, seeds like almonds and coconuts, grains like rice, oats, spelt and millet and/or additional seeds like soy, peanuts, cashews, lupines, Brazil nuts, pecans and pistachios; mixing the plant parts with water so that the water and the plant parts form the milk replacement product; and separating a pomace left over from the plant parts from the milk replacement product, characterized in that the plant parts are mashed into a pulp while the water is being pressed through the pulp and a filter that retains the pomace under a pressure of 2 to 15 bar. comminuting portions of plant parts from real nuts that include protein and fat like hazel nuts, walnuts, chestnuts, macadamia nuts, hemp and beechnuts, seeds like almonds and coconuts, grains like rice, oats, spelt and millet and/or additional seeds like soy, peanuts, cashews, lupines, Brazil nuts, pecans and pistachios; mixing the plant parts with water so that the water and the plant parts form the milk replacement product; and separating a pomace left over from the plant parts from the milk replacement product, characterized in that the plant parts are mashed into a pulp while the water is being pressed through the pulp and a filter that retains the pomace under a pressure of 2 to 15 bar.
A solar module bracket having a base support which is fastenable in particular on a roof and a yoke support for holding a module support rail, wherein the yoke support comprises a fastening region which is releasably connected to the base support, wherein the fastening region is formed by a yoke portion of the yoke support which comprises several arms (15, 16), each arm (15, 16) of the yoke portion is releasably connected to the base support, the yoke support comprises a yoke centre region which merges integrally into a branching region which, in turn merges integrally into the arms (15, 16), wherein the base support is realized as a base plate or comprises a base plate, characterized in that the free ends (23, 24) of the arms (15, 16) are connected to the base support by means of slot nut connections (25, 26), wherein the slot nut connections (25, 26) comprise in each case a slot nut (27, 28) which is provided on the free end (23, 24) of the respective arm (15, 16) and at least one receiving groove (29, 30, 72, 72', 85, 86) which is provided on the base support for the slot nut (27, 28), and that several receiving grooves (29, 30, 72, 72', 85, 86), which comprise different height distances to the plane of the base plate, are provided on the base support for each slot nut (27, 28).
A method for wireless communications, said method being performed by a user equipment, the method comprising: receiving, from a base station, a broadcast information block message including a first uplink/downlink UL/DL, subframe configuration of a plurality of UL/DL subframe configurations, each indicating which subframes of a set of subframes are for uplink transmissions and which subframes of the set of subframes are for downlink transmissions, wherein the set of subframes is a Time Division Duplex, TDD, frame; receiving, from said base station, signaling indicating a second UL/DL subframe configuration suitable for handling communications with said, base station, and signaling which provides an indication of when the second UL/DL subframe configuration is to be employed, and communicating with the base station in accordance with the second UL/DL subframe configuration, wherein the second UL/DL subframe configuration is one of a number of subframe configurations of the plurality of UL/DL subframe configurations which are allowed for the first UL/DL subframe configuration, wherein the signaling indicating the second UL/DL subframe configuration is dedicated signaling being received via an information field in at least one of a physical downlink control channel, PDCCH, or enhanced physical downlink control channel, ePDCCH. receiving, from a base station, a broadcast information block message including a first uplink/downlink UL/DL, subframe configuration of a plurality of UL/DL subframe configurations, each indicating which subframes of a set of subframes are for uplink transmissions and which subframes of the set of subframes are for downlink transmissions, wherein the set of subframes is a Time Division Duplex, TDD, frame; receiving, from said base station, signaling indicating a second UL/DL subframe configuration suitable for handling communications with said, base station, and signaling which provides an indication of when the second UL/DL subframe configuration is to be employed, and communicating with the base station in accordance with the second UL/DL subframe configuration, wherein the second UL/DL subframe configuration is one of a number of subframe configurations of the plurality of UL/DL subframe configurations which are allowed for the first UL/DL subframe configuration, wherein the signaling indicating the second UL/DL subframe configuration is dedicated signaling being received via an information field in at least one of a physical downlink control channel, PDCCH, or enhanced physical downlink control channel, ePDCCH.
A method of dynamically compensating for delay mismatch between an amplifier supply signal and an amplifier input signal for a power amplifier of a polar modulation transmitter, the method comprising: generating the amplifier input signal responsive to one or more phase signals; generating the amplifier supply signal responsive to an amplitude signal; imparting a variable delay on the amplitude signal to generate a delayed amplitude signal; determining a delay error signal based on a comparison between the delayed amplitude signal and the amplifier supply signal; adjusting the variable delay responsive to the delay error signal; and adjusting a path delay associated with the one or more phase signals responsive to the adjusted variable delay to compensate for the delay mismatch. generating the amplifier input signal responsive to one or more phase signals; generating the amplifier supply signal responsive to an amplitude signal; imparting a variable delay on the amplitude signal to generate a delayed amplitude signal; determining a delay error signal based on a comparison between the delayed amplitude signal and the amplifier supply signal; adjusting the variable delay responsive to the delay error signal; and adjusting a path delay associated with the one or more phase signals responsive to the adjusted variable delay to compensate for the delay mismatch.
A method of processing DNA, comprising: processing a double-stranded DNA comprising a first DNA strand and a second DNA strand and nicking the first DNA strand to give rise to an unhybridized flap of the first DNA strand and a corresponding region on the second DNA strand, wherein the unhybridized flap comprises about 1 to about 1000 bases; extending the first DNA strand along the corresponding region of the second DNA strand by incorporating more than one nucleotide; labeling at least a portion of the unhybridized flap, a portion of the extended first DNA strand, or both; and linearizing at least a portion of the double-stranded DNA comprising an unhybridized flap, a portion of the extended region of the first DNA strand, or both, wherein the linearization is accomplished by linearizing the labelled portion of the DNA in a nanochannel or by applying a fluid, electrical, or pressure gradient. processing a double-stranded DNA comprising a first DNA strand and a second DNA strand and nicking the first DNA strand to give rise to an unhybridized flap of the first DNA strand and a corresponding region on the second DNA strand, wherein the unhybridized flap comprises about 1 to about 1000 bases; extending the first DNA strand along the corresponding region of the second DNA strand by incorporating more than one nucleotide; labeling at least a portion of the unhybridized flap, a portion of the extended first DNA strand, or both; and linearizing at least a portion of the double-stranded DNA comprising an unhybridized flap, a portion of the extended region of the first DNA strand, or both, wherein the linearization is accomplished by linearizing the labelled portion of the DNA in a nanochannel or by applying a fluid, electrical, or pressure gradient.
A compound of formula: wherein; R 1 is (1 S)-1-methylbutyloxy; m is an integer having a value of 3 to 6; n is an integer having a value of 0 to 4; or a salt thereof. R 1 is (1 S)-1-methylbutyloxy; m is an integer having a value of 3 to 6; n is an integer having a value of 0 to 4;
A multi-channel audio decoder (200; 300; 700; 800) for providing at least two output audio signals (212, 214; 312, 314; 712, 714) on the basis of an encoded representation (210; 310; 710), wherein the multi-channel audio decoder is configured to obtain one of the output audio signals on the basis of an encoded representation of a downmix signal (222; 722), a plurality of encoded spatial parameters and an encoded representation of a residual signal (226; 724), and wherein the multi-channel audio decoder is configured to blend between a parametric coding and a residual coding in dependence on the residual signal, such that an intensity of the residual signal determines whether the decoding is mostly based on the spatial parameters in addition to the downmix signal, or whether the decoding is mostly based on the residual signal in addition to the downmix signal, or whether an intermediate state is taken in which both the spatial parameters and the residual signal affect a refinement of the output signal, to derive the output audio signals from the downmix signal.