mhurhangee/patent-ind-claim-en huggingface dataset:
Method for regulating an electrical power transfer between at least two power supply units and at least one power consumption unit, comprising the steps: - providing a first data set with information regarding a minimum and maximum electrical power which can be supplied for each of the power supply units (S1); - providing a second data set with information regarding a power requirement of the at least one power consumption unit and a weighting of each of the power supply units (S2); - providing a target function for a numerical optimization method (S3); wherein - the target function includes the information from the data sets and the weightings of the power supply units as parameters, and the weighting numerically weights the power transfers within the target function ; and - regulating the power transfer by means of an extremalization of the target function (S4), wherein the power transfers are determined by the extremalization; characterized in that the weighting of the power supply units is provided by the at least one power consumption unit. - providing a first data set with information regarding a minimum and maximum electrical power which can be supplied for each of the power supply units (S1); - providing a second data set with information regarding a power requirement of the at least one power consumption unit and a weighting of each of the power supply units (S2); - providing a target function for a numerical optimization method (S3); - the target function includes the information from the data sets and the weightings of the power supply units as parameters, and the weighting numerically weights the power transfers within the target function ; and - regulating the power transfer by means of an extremalization of the target function (S4),
Portable assembly for emergency oxygen distribution, comprising an oxygen storage cartridge comprising a tubular body closed at two opposite ends and delimiting an internal volume that serves to store gaseous oxygen, and in which: - the internal volume comprises a central chamber containing at least one bed of adsorbent , and - at least one gas flow control valve is arranged at each of the two opposite ends , each control valve comprising a valve body , an annular sealing means , a movable element and an elastic means cooperating to control the passage of gas through each control valve so that each control valve can adopt at least: ∘ a closed position, in which no gas flow can enter or leave the internal volume of the tubular body by passing through the control valve in question, and ∘ an open position, in which a gas flow can enter or leave the internal volume through the control valve in question, characterized in that the cartridge is fluidically connected to a gas reservoir and to a respiratory interface . - the internal volume comprises a central chamber containing at least one bed of adsorbent , and - at least one gas flow control valve is arranged at each of the two opposite ends , each control valve comprising a valve body , an annular sealing means , a movable element and an elastic means cooperating to control the passage of gas through each control valve so that each control valve can adopt at least: ∘ a closed position, in which no gas flow can enter or leave the internal volume of the tubular body by passing through the control valve in question, and ∘ an open position, in which a gas flow can enter or leave the internal volume through the control valve in question, ∘ a closed position, in which no gas flow can enter or leave the internal volume of the tubular body by passing through the control valve in question, and ∘ an open position, in which a gas flow can enter or leave the internal volume through the control valve in question,
A method of data collection from a rotor system of an aircraft comprising: disposing a plurality of sensors at a plurality of locations of a rotating portion of the rotor system ; positioning one or more antennae at one or more rotationally fixed locations of the aircraft ; collecting rotor system data via the plurality of sensors ; wirelessly transmitting the rotor system data from the plurality of sensors to the one or more antennae ; transferring the rotor system data from the one or more antennae to a gateway ; and normalizing and synchronizing the rotor system data at the gateway characterised by transmitting the rotor system data from the plurality of sensors to the gateway via the one or more antennae using two or more separate wireless protocols depending on types of the plurality of sensors ; and normalizing the rotor system data at the gateway to a common data format. disposing a plurality of sensors at a plurality of locations of a rotating portion of the rotor system ; positioning one or more antennae at one or more rotationally fixed locations of the aircraft ; collecting rotor system data via the plurality of sensors ; wirelessly transmitting the rotor system data from the plurality of sensors to the one or more antennae ; transferring the rotor system data from the one or more antennae to a gateway ; and normalizing and synchronizing the rotor system data at the gateway characterised by transmitting the rotor system data from the plurality of sensors to the gateway via the one or more antennae using two or more separate wireless protocols depending on types of the plurality of sensors ; and normalizing the rotor system data at the gateway to a common data format.
Propylene-ethylene random copolymers having (i) a melt flow rate MFR 2 (according to ISO 1133, 230°C, 2.16kg) in the range of 50 to 120 g/10 min, (ii) a total ethylene comonomer content of 3.0 to 9.0 mol% (iii) a content of the orthorhombic gamma-crystal phase 100.Kγ of 20% to less than 45 % as determined by wide-angle X-ray diffraction (WAXS) on a 60x60x2 mm 3 injection moulded test specimens as described in the experimental part and comprising 0.0001 to 1.0 wt%, based on the total weight of the propylene-ethylene random copolymer, of a polymeric α-nucleating agent (pNA). (i) a melt flow rate MFR 2 (according to ISO 1133, 230°C, 2.16kg) in the range of 50 to 120 g/10 min, (ii) a total ethylene comonomer content of 3.0 to 9.0 mol% (iii) a content of the orthorhombic gamma-crystal phase 100.Kγ of 20% to less than 45 % as determined by wide-angle X-ray diffraction (WAXS) on a 60x60x2 mm 3 injection moulded test specimens as described in the experimental part and comprising 0.0001 to 1.0 wt%, based on the total weight of the propylene-ethylene random copolymer, of a polymeric α-nucleating agent (pNA).
A retail shelf floor divider or shelf floor limiter, which comprises - mechanical coupling means which are arranged for coupling the retail shelf floor divider or shelf floor limiter to a further structure, in particular a shelf floor , in order to divide a shelf floor in shelf floor sections or to limit it, and - electronic detection means for the detection of movement in the neighborhood of the retail shelf floor divider or the shelf floor limiter, which are arranged to utilize an electromagnetic wave, preferred a radio wave, more preferred a light wave , or a sound wave for said detection, wherein - the electronic detection means are arranged to generate and submit a detection signal upon movement-detection, and wherein - the retail shelf floor divider or shelf floor limiter further comprises electric connections to supply power to the electronic detection means and / or to transmit said detection signal, wherein - the electrical connections comprise connectors which are integrated into the mechanical coupling means . - mechanical coupling means which are arranged for coupling the retail shelf floor divider or shelf floor limiter to a further structure, in particular a shelf floor , in order to divide a shelf floor in shelf floor sections or to limit it, and - electronic detection means for the detection of movement in the neighborhood of the retail shelf floor divider or the shelf floor limiter, which are arranged to utilize an electromagnetic wave, preferred a radio wave, more preferred a light wave , or a sound wave for said detection, wherein - the electronic detection means are arranged to generate and submit a detection signal upon movement-detection, and wherein - the retail shelf floor divider or shelf floor limiter further comprises electric connections to supply power to the electronic detection means and / or to transmit said detection signal, wherein - the electrical connections comprise connectors which are integrated into the mechanical coupling means .
Cooling module (K) for a photovoltaic unit which is mountable on a rear side of the photovoltaic unit, characterized by a core which is in the form of a plate-like 3D textile, wherein the core has two surfaces and is designed as a spacer knit with a multiplicity of pole threads through which spacer knit a fluid is flowable, wherein one of the surfaces of the core can be made to face the photovoltaic unit in order to remove heat from the photovoltaic unit, wherein the two surfaces of the core are provided with a fluid-tight coating , or wherein that surface of the core which faces away from the photovoltaic unit is provided with a fluid-tight coating and that surface of the core which faces the photovoltaic unit is connectable in a fluid-tight manner to the photovoltaic unit, wherein edge surfaces (1.1, 1.2, 1.3, 1.4) of the core are each provided with an enclosure (4.1, 4.2, 4.3, 4.4), said enclosures being fluid-impermeable.
An enclosure for a cooking fume extraction hood , said enclosure comprising: - a box-like body accommodating a suction means and has at least one opening facing an outside environment and arranged on a plane transverse to a vertical direction (A), said box-like body having at least one side wall in contact with the outside environment; - a panel which is configured to block said opening , and is hinged to said box-like body ; - at least one telescopic element connected to said panel and to said box-like body for guiding a pivoting motion of said panel relative to said box-like body ; - lock means for locking said panel , which are configured to lock said panel in a closed position, in which said panel is placed substantially parallel to said opening and blocks said opening ; characterized in that said lock means comprise a deformable member which is configured to take hold of said telescopic element when said panel is in the closed position, to lock said telescopic element in position relative to said panel and prevent any pivoting motion of said panel , said deformable member being fixed to said panel . - a box-like body accommodating a suction means and has at least one opening facing an outside environment and arranged on a plane transverse to a vertical direction (A), said box-like body having at least one side wall in contact with the outside environment; - a panel which is configured to block said opening , and is hinged to said box-like body ; - at least one telescopic element connected to said panel and to said box-like body for guiding a pivoting motion of said panel relative to said box-like body ; - lock means for locking said panel , which are configured to lock said panel in a closed position, in which said panel is placed substantially parallel to said opening and blocks said opening ;
A method of controlling a two-bank multileaf collimator "MLC" of a radiation treatment delivery system , comprising: determining a plurality of radiation beam delivery positional sections to contain MLC leaf control instructions while a radiation beam is active, wherein each of the plurality of radiation beam delivery positional sections corresponds to a range of radiation beam positions over a discrete time interval, wherein the discrete time interval is based on an average open-time and a modulation factor; generating a plurality of openings for each of the plurality of radiation beam delivery positional sections, each of the plurality of openings corresponding to one of a plurality of leaf pairs of the MLC , wherein two or more of the plurality of openings correspond to different widths; generating a plurality of leaf open-time fractions for each of the plurality of radiation beam delivery positional sections, each of the plurality of leaf open-time fractions corresponding to one of the plurality of leaf pairs of the MLC ; and controlling, by a processing device, the plurality of leaf pairs of the MLC such that each leaf pair of the plurality of leaf pairs is opened to a corresponding opening of the plurality of openings for a corresponding leaf open-time fraction of the plurality of leaf open-time fractions during the discrete time interval corresponding to the range of radiation beam positions, while the radiation beam of the radiation treatment system is active. determining a plurality of radiation beam delivery positional sections to contain MLC leaf control instructions while a radiation beam is active, wherein each of the plurality of radiation beam delivery positional sections corresponds to a range of radiation beam positions over a discrete time interval, wherein the discrete time interval is based on an average open-time and a modulation factor; generating a plurality of openings for each of the plurality of radiation beam delivery positional sections, each of the plurality of openings corresponding to one of a plurality of leaf pairs of the MLC , wherein two or more of the plurality of openings correspond to different widths; generating a plurality of leaf open-time fractions for each of the plurality of radiation beam delivery positional sections, each of the plurality of leaf open-time fractions corresponding to one of the plurality of leaf pairs of the MLC ; and controlling, by a processing device, the plurality of leaf pairs of the MLC such that each leaf pair of the plurality of leaf pairs is opened to a corresponding opening of the plurality of openings for a corresponding leaf open-time fraction of the plurality of leaf open-time fractions during the discrete time interval corresponding to the range of radiation beam positions, while the radiation beam of the radiation treatment system is active.
A terminal device (1-1) comprising: a reception unit configured to receive information indicating a number of transmission repetitions for physical downlink control channel, and a physical layer control unit configured to perform radio link monitoring based on a threshold being defined as a level of a downlink radio link, wherein a value of the threshold corresponds to a specific block error rate of a physical downlink control channel transmission with the number of transmission repetitions, a value of a timer T310 started or restarted, in a case that out-of-sync conditions are consecutively received a predetermined number of times referred to as N310 times, is configured by using a radio resource control message, and a value range of the timer T310 is 0 ms to T ms, T > 2000, the value range of the timer T310 being different from another value range of another timer T310 started or restarted, in a case that out-of-sync conditions are consecutively received N310 times in another terminal device which uses a parameter included in SystemInformationBlockType1, the another value range being 0 ms to 2000 ms. a reception unit configured to receive information indicating a number of transmission repetitions for physical downlink control channel, and a physical layer control unit configured to perform radio link monitoring based on a threshold being defined as a level of a downlink radio link, wherein a value of the threshold corresponds to a specific block error rate of a physical downlink control channel transmission with the number of transmission repetitions, a value of a timer T310 started or restarted, in a case that out-of-sync conditions are consecutively received a predetermined number of times referred to as N310 times, is configured by using a radio resource control message, and a value range of the timer T310 is 0 ms to T ms, T > 2000, the value range of the timer T310 being different from another value range of another timer T310 started or restarted, in a case that out-of-sync conditions are consecutively received N310 times in another terminal device which uses a parameter included in SystemInformationBlockType1, the another value range being 0 ms to 2000 ms.
A radio for a radio network with dynamic and distributed radio resource allocation, wherein the radio comprises a sensing module that is configured to sense a radio spectrum, thereby obtaining sensing data, wherein the radio comprises a transmission module that is configured to transmit a radio signal, and wherein the sensing module and the transmission module are interconnected with each other such that the sensing module is configured to forward information associated with the sensing data to the transmission module for transmitting the information encompassed in a radio signal to a second radio of the radio network , wherein the information corresponds to at least one frequency range within the radio spectrum which is to be used by the radio for receiving radio signals, characterized in that the at least one frequency range corresponds to a frequency hopset that defines which frequency or frequency sub-range is used at a certain time while hopping between different frequencies or different frequency ranges.
A fire transformable fire resistant coating for use in a transparent fire resistant glazing product, wherein the fire resistant coating is arrangable on a flat side of a transparent panel element , wherein the fire transformable fire resistant coating comprises: - at least one noble metal oxide layer and - at least one sacrificial layer wherein the at least one noble metal oxide layer comprises a noble metal oxide with a first affinity to oxygen and wherein the at least one sacrificial layer comprises a transition metal with a second affinity to oxygen, wherein the second affinity to oxygen is higher than the first affinity to oxygen, wherein the noble metal oxide layer is arranged alongside to the sacrificial layer and wherein the fire resistant coating is transformable from a first state to a second state upon exposure to fire and wherein the sheet resistance of the fire resistant coating is smaller in the second state compared to the first state, wherein the fire resistant coating comprises at least one separator layer arranged between the at least one noble metal oxide layer and the at least one sacrificial layer and wherein the separator layer is designed to prevent reduction of the noble metal oxide of the noble metal oxide layer at room temperature. - at least one noble metal oxide layer and - at least one sacrificial layer
A Solanum lycopersicon plant comprising a TYLCV resistance phenotype and an intense fruit phenotype whereby the locular gel is replaced by fleshy tissue, wherein said plant comprises at least one recombinant chromosome 6 comprising the intense allele and an introgression fragment comprising an allele conferring TYLCV resistance in coupling configuration, wherein said allele conferring TYLCV resistance is the Ty-1 allele from S. chilense, wherein said recombinant chromosome 6 is the recombinant chromosome 6 as found in seeds deposited under accession number NCIMB 41930 or is derived from said recombinant chromosome 6 and wherein said introgression fragment comprises a S. chilense-genome specific marker selected from the group consisting of marker MSc05732-4 detectable using PCR primers of SEQ ID NO: 9 and SEQ ID NO: 10 and restriction enzyme Dde I, marker cLEG-31-P16 detectable using PCR primers of SEQ ID NO: 11 and SEQ ID NO: 12 and restriction enzyme Hae III, or any S. chilense- genome specific marker between these two markers.
A pneumatic tire, preferably a pneumatic truck tire, comprising a tread, a carcass and a belt package interposed between the carcass and the tread, wherein the belt package includes a first working belt , wherein the first working belt is the radially innermost belt and the axially widest belt of the belt package , wherein the belt package further includes a relatively low angle belt located radially outward of the first working belt and comprising parallel reinforcement elements angled at an angle of less than 10 degrees with respect to the circumferential direction of the tire , wherein the belt package further includes a second working belt that is located radially outward of the relatively low angle belt , wherein the second working belt has a first lateral end section and a second lateral end section , wherein a first lateral belt is located axially adjacent or axially outward the first lateral end section of the second working belt , and wherein a second lateral belt is located axially adjacent or axially outward the second lateral end section of the second working belt , characterized in that the first and second lateral belts are integrally formed with the relatively low angle belt .
A circuit for modifying a clock signal, the circuit comprising: a delay unit configured to receive the clock signal and delay the clock signal so as to output a plurality of delayed versions of the clock signal, each delayed version being delayed by a different amount of delay to the other delayed versions; characterised in that the circuit comprises: a delay estimator configured to determine an amount of delay for modifying the clock signal; and a multiplexer configured to: receive each of the delayed versions of the clock signal; select an intermediate delayed version of the clock signal from the plurality of delayed versions of the clock signal in dependence on the determined amount of delay, the intermediate delayed version having a delay that is smaller than the determined amount of delay; output the intermediate delayed version; and subsequently select a delayed version of the clock signal in dependence on the determined amount of delay; and output the selected version of the clock signal. a delay unit configured to receive the clock signal and delay the clock signal so as to output a plurality of delayed versions of the clock signal, each delayed version being delayed by a different amount of delay to the other delayed versions; characterised in that the circuit comprises: a delay estimator configured to determine an amount of delay for modifying the clock signal; and a multiplexer configured to: receive each of the delayed versions of the clock signal; select an intermediate delayed version of the clock signal from the plurality of delayed versions of the clock signal in dependence on the determined amount of delay, the intermediate delayed version having a delay that is smaller than the determined amount of delay; output the intermediate delayed version; and subsequently select a delayed version of the clock signal in dependence on the determined amount of delay; and output the selected version of the clock signal. a delay estimator configured to determine an amount of delay for modifying the clock signal; and a multiplexer configured to: receive each of the delayed versions of the clock signal; select an intermediate delayed version of the clock signal from the plurality of delayed versions of the clock signal in dependence on the determined amount of delay, the intermediate delayed version having a delay that is smaller than the determined amount of delay; output the intermediate delayed version; and subsequently select a delayed version of the clock signal in dependence on the determined amount of delay; and output the selected version of the clock signal. receive each of the delayed versions of the clock signal; select an intermediate delayed version of the clock signal from the plurality of delayed versions of the clock signal in dependence on the determined amount of delay, the intermediate delayed version having a delay that is smaller than the determined amount of delay; output the intermediate delayed version; and subsequently select a delayed version of the clock signal in dependence on the determined amount of delay; and output the selected version of the clock signal.