mhurhangee/ep-ind-claims huggingface dataset:
Dispensing system having a dispenser for delivering a mixture of variable colour, and a computer system for operating the dispenser, the dispenser comprising three different base products of different colours and allowing these to be delivered in variable proportions to vary the colour of the mixture, the computer system having a touch screen on which the colour of the mixture can be displayed, the touch screen displaying a surface of triangular outline, the vertices of the triangular outline embodying, each, one of the three base products, the surface of triangular outline locally showing the colour of the mixture according to the distance from each of the vertices, the computer system further comprising a selection means movable on the screen within the surface of triangular outline, in order to select the colour of the dispensed mixture. the computer system having a touch screen on which the colour of the mixture can be displayed, the touch screen displaying a surface of triangular outline, the vertices of the triangular outline embodying, each, one of the three base products, the surface of triangular outline locally showing the colour of the mixture according to the distance from each of the vertices, the computer system further comprising a selection means movable on the screen within the surface of triangular outline, in order to select the colour of the dispensed mixture.
An assembly for use in a liquid droplet apparatus, the assembly comprising: a vibrating element; an aperture plate; and a vibrating platform; wherein the vibrating platform is positioned between the vibrating element and the aperture plate for conveying vibrations from the vibrating element to the aperture plate, wherein the vibrating platform comprises: a first annular portion for coupling to the vibrating element; second annular portion for coupling to the aperture plate; and a sidewall to define a cavity; wherein the first annular portion lies in a first plane and the second annular portion lies in a second plane, the second plane being separated from and substantially in parallel with the first plane, and separated from and substantially in parallel with a third plane corresponding to a plane in which the vibrating element lies, wherein the sidewall protrudes at least partly through an aperture of the vibrating element, and wherein the vibrating platform is structured such that the aperture plate is located within the cavity defined by the sidewall; characterized in that the sidewall is angled with respect to the plane of the vibrating element so that the angle of the sidewall is adjusted through contraction and expansion of the vibrating element in a radial direction in the plane of the vibrating element. a vibrating element; an aperture plate; and a vibrating platform;
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, channel state information reference signal, CSI-RS, configuration information including configuration for a plurality of CSI-RSs; receiving, from the base station, information for channel state information, CSI, generation and feedback scheme; identifying a CSI-RS indicator indicating a CSI-RS among the plurality of CSI-RSs based on the information for CSI generation and feedback scheme; obtaining a rank indicator, RI, a precoding matrix indicator, PMI, and a channel quality indicator, CQI, based on the CSI-RS indicated by the CSI-RS indicator; and transmitting, to the base station, CSI including the CSI-RS indicator, the RI, the PMI, and the CQI, wherein the CQI is obtained based on the RI and the PMI using the CSI-RS indicated by the CSI-RS indicator, wherein the information for CSI generation and feedback scheme includes information on RI restriction which indicates a set of allowable RI to be reported, and wherein the RI is included in the set of allowable RI. receiving, from a base station, channel state information reference signal, CSI-RS, configuration information including configuration for a plurality of CSI-RSs; receiving, from the base station, information for channel state information, CSI, generation and feedback scheme; identifying a CSI-RS indicator indicating a CSI-RS among the plurality of CSI-RSs based on the information for CSI generation and feedback scheme; obtaining a rank indicator, RI, a precoding matrix indicator, PMI, and a channel quality indicator, CQI, based on the CSI-RS indicated by the CSI-RS indicator; and transmitting, to the base station, CSI including the CSI-RS indicator, the RI, the PMI, and the CQI, wherein the CQI is obtained based on the RI and the PMI using the CSI-RS indicated by the CSI-RS indicator, wherein the information for CSI generation and feedback scheme includes information on RI restriction which indicates a set of allowable RI to be reported, and wherein the RI is included in the set of allowable RI.
A crystal oscillator circuit (100, 200) comprising: a crystal resonator; a voltage source configured to apply a voltage step across the crystal resonator where a polarity of the voltage source applied to the crystal resonator is switched in response to a sign of a current passing through the crystal resonator, this generating a self-timed energy injection waveform that is applied to the crystal resonator, wherein the crystal oscillator circuit (100, 200) is characterized in that it is arranged such that the injection waveform switches polarity at each zero-crossing of a motional branch current of the crystal resonator. a crystal resonator; a voltage source configured to apply a voltage step across the crystal resonator where a polarity of the voltage source applied to the crystal resonator is switched in response to a sign of a current passing through the crystal resonator, this generating a self-timed energy injection waveform that is applied to the crystal resonator, wherein the crystal oscillator circuit (100, 200) is characterized in that it is arranged such that the injection waveform switches polarity at each zero-crossing of a motional branch current of the crystal resonator.
A welding system, comprising: - a welding torch, - a power source configured to generate welding power and deliver the welding power to a welding torch, wherein the welding torch is coupled to a negative output terminal of the power source; - a welding wire feeder configured to advance a metal cored electrode into the welding torch at a rate of advancement; and - control circuitry configured to implement an electrode negative pulse welding regime characterized in that the control circuitry is further configured to implement a linear current-closed loop controlled ramp to a desired peak transition, and a current-closed loop peak phase and a generally parabolic current-closed loop stabilization phase following the peak phase, and a current-closed loop return phase following the stabilization phase to a background power level, wherein the stabilization phase comprises a down ramp of current defined by a current-per-unit-time squared relationship, wherein an arc re-establishment routine is implemented in the event of a short circuit following the stabilization phase. - a welding torch, - a power source configured to generate welding power and deliver the welding power to a welding torch, wherein the welding torch is coupled to a negative output terminal of the power source; - a welding wire feeder configured to advance a metal cored electrode into the welding torch at a rate of advancement; and - control circuitry configured to implement an electrode negative pulse welding regime
Method of determining the average layer thickness l of a planar packaging material for pharmaceutical packaging, wherein the capacitance is measured by means of two electrodes applied to the opposing outer surfaces of the packaging material, so that the average layer thickness l can be calculated by means of the material-specific relative dielectric constant ε r and the known area A of the electrodes, characterised in that in the method the electrode area A of the two electrodes corresponds to the area of the packaging between the surfaces of which the average layer thickness is to be determined, a device being used which comprises two electrodes between which the packaging material is inserted, and the device consisting of a measuring chamber into which the packaging material is clamped, so that two separate measuring chamber halves are produced which are separated by the packaging material, the two opposing surfaces of the packaging material in the two measuring chamber halves being connected to the electrodes.
A method for use in a node to provide service differentiable radio resource management, RRM, in a wireless communication network, the method comprising: defining RRM periods, and defining access point, AP, priority factors associated with APs based on predefined criteria, wherein said AP priority factors are a set of integer values or real values, and wherein, for each RRM period, one or more RRM time-slots are defined for performing RRM optimizations; scheduling RRM optimizations for each RRM period, wherein the scheduling comprises selecting a subset of the RRM time-slots during an RRM period for performing RRM optimization; performing a RRM optimization, in the selected subset of RRM time-slots, based on the AP priority factors, and sending configuration data to the APs based on the RRM optimization. defining RRM periods, and defining access point, AP, priority factors associated with APs based on predefined criteria, wherein said AP priority factors are a set of integer values or real values, and wherein, for each RRM period, one or more RRM time-slots are defined for performing RRM optimizations; scheduling RRM optimizations for each RRM period, wherein the scheduling comprises selecting a subset of the RRM time-slots during an RRM period for performing RRM optimization; performing a RRM optimization, in the selected subset of RRM time-slots, based on the AP priority factors, and sending configuration data to the APs based on the RRM optimization.
A vaccine composition comprising a purified mutant GAS57 antigen comprising an amino acid alteration at two or more amino acid positions selected from the group consisting of amino acids D151, H279, and S617, wherein the amino acid positions are numbered according to SEQ ID NO:1 and wherein proteolytic activity of the purified mutant GAS57 antigen against interleukin 8 (IL-8) is reduced by at least 50% relative to wild-type GAS57 as detected by SDS-polyacrylamide gel electrophoresis or by an ELISA assay.
Method for use in a target node in a wireless communication system for managing user equipment access to the target node when a user equipment is performing a handover from a source node to the target node, the wireless communication system comprises the target node, the source node, a core network node and the user equipment being configured for wireless communication over a bearer with the source node and for performing a handover from the source node to the target node, the method comprises the steps of: receiving a bearer request associated with the user equipment, obtaining a time information parameter associated with the queuing time of the bearer request in at least the source node, checking if communication resources are available for establishing a bearer with the user equipment, and if communication resources are not available, placing the bearer request in a priority queue, based on the received time information parameter. receiving a bearer request associated with the user equipment, obtaining a time information parameter associated with the queuing time of the bearer request in at least the source node, checking if communication resources are available for establishing a bearer with the user equipment, and if communication resources are not available, placing the bearer request in a priority queue, based on the received time information parameter.
A method for providing data connectivity with various types of data session continuity performed by an apparatus, the apparatus comprising a transceiver configured to communicate with a mobile communication network, a storage device and a processor, the method comprising: receiving a data session request; identifying a required continuity type based on the data session request, the required continuity type being selected from a plurality of continuity types supported by the mobile communication network, wherein the identifying comprises: applying a continuity selection policy to the data session request, the continuity selection policy being stored on the storage device and comprising one or more prioritized rules for selecting a required continuity type based on characteristics of the data session request; and establishing a protocol data unit, PDU, session having the required continuity type between the apparatus and the mobile communication network. receiving a data session request; identifying a required continuity type based on the data session request, the required continuity type being selected from a plurality of continuity types supported by the mobile communication network, wherein the identifying comprises: applying a continuity selection policy to the data session request, the continuity selection policy being stored on the storage device and comprising one or more prioritized rules for selecting a required continuity type based on characteristics of the data session request; and establishing a protocol data unit, PDU, session having the required continuity type between the apparatus and the mobile communication network.
Radiofrequency amplification device for an input signal, the device operating in a low-frequency band, corresponding to the frequencies lower than a given frequency, and a high-frequency band, corresponding to the frequencies higher than the given frequency, comprising at least: - a first amplification module which receives at the input the input signal from the device which is capable of operating in the high band, the amplification of which is modulated in accordance with an envelope tracking of the input signal of the device, which is capable of being connected at the output to a first antenna which is adapted to the high band; - a second amplification module which receives at the input the input signal from the device which is capable of operating in the low band and of carrying out the envelope tracking; - a commutator which is suitable for commutating the output of the second amplification module: ∘ towards a second antenna which is adapted to the low band when the amplification device operates in the low band; ∘ towards the first amplification module in order to control the amplification carried out by the first module in accordance with the envelope tracking when the amplification device operates in the high band. - a first amplification module which receives at the input the input signal from the device which is capable of operating in the high band, the amplification of which is modulated in accordance with an envelope tracking of the input signal of the device, which is capable of being connected at the output to a first antenna which is adapted to the high band; - a second amplification module which receives at the input the input signal from the device which is capable of operating in the low band and of carrying out the envelope tracking; - a commutator which is suitable for commutating the output of the second amplification module: ∘ towards a second antenna which is adapted to the low band when the amplification device operates in the low band; ∘ towards the first amplification module in order to control the amplification carried out by the first module in accordance with the envelope tracking when the amplification device operates in the high band. ∘ towards a second antenna which is adapted to the low band when the amplification device operates in the low band; ∘ towards the first amplification module in order to control the amplification carried out by the first module in accordance with the envelope tracking when the amplification device operates in the high band.
A method for electrically characterising at least one cut photovoltaic cell, including: a) measuring the I-V characteristic of an uncut photovoltaic cell; b) cutting the photovoltaic cell into several photovoltaic sub-cells; c) measuring the I-V characteristic of each of the photovoltaic sub-cells not electrically connected to the other photovoltaic sub-cells; d) measuring the I-V characteristic of an assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel; e) determining, from the I-V characteristics measured, at least one electric performance parameter of the uncut photovoltaic cell, at least one electric performance parameter of each of the photovoltaic sub-cells and at least one electric performance parameter of the assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel; f) calculating, for each of the photovoltaic sub-cells, the difference between the value of the electric performance parameter of the photovoltaic sub-cell and the value of the electric performance parameter of the uncut photovoltaic cell; g) calculating the difference between the value of the electric performance parameter of the assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel and the value of the electric performance parameter of the uncut photovoltaic cell. a) measuring the I-V characteristic of an uncut photovoltaic cell; b) cutting the photovoltaic cell into several photovoltaic sub-cells; c) measuring the I-V characteristic of each of the photovoltaic sub-cells not electrically connected to the other photovoltaic sub-cells; d) measuring the I-V characteristic of an assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel; e) determining, from the I-V characteristics measured, at least one electric performance parameter of the uncut photovoltaic cell, at least one electric performance parameter of each of the photovoltaic sub-cells and at least one electric performance parameter of the assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel; f) calculating, for each of the photovoltaic sub-cells, the difference between the value of the electric performance parameter of the photovoltaic sub-cell and the value of the electric performance parameter of the uncut photovoltaic cell; g) calculating the difference between the value of the electric performance parameter of the assembly comprising all the photovoltaic sub-cells electrically connected to each other in parallel and the value of the electric performance parameter of the uncut photovoltaic cell.
A membrane electrode unit comprising A) at least one polymer membrane based on polyazoles, B) at least two electrodes, wherein the polymer membrane based on polyazoles can be obtained by a process comprising the steps of: i) preparation of a mixture comprising polyphosphoric acid, at least one polyazole and/or at least one or more compounds which are suitable for the formation of polyazoles with action of heat in accordance with step ii), ii) heating the mixture obtainable in accordance with step i) under inert gas to temperatures of up to 400°C, iii) applying a layer using the mixture in accordance with step i) and/or ii) to a support, iv) partial hydrolysis of the polyphosphoric acid present in the membrane formed in step iii), characterized in that at least one electrode includes a catalyst containing i. a precious metal of the platinum group, wherein the precious metal is platinum, and ii. a metal less precious according to the electrochemical series than the metal mentioned in (i.), this (less precious) metal being nickel. A) at least one polymer membrane based on polyazoles, B) at least two electrodes, wherein the polymer membrane based on polyazoles can be obtained by a process comprising the steps of: i) preparation of a mixture comprising polyphosphoric acid, at least one polyazole and/or at least one or more compounds which are suitable for the formation of polyazoles with action of heat in accordance with step ii), ii) heating the mixture obtainable in accordance with step i) under inert gas to temperatures of up to 400°C, iii) applying a layer using the mixture in accordance with step i) and/or ii) to a support, iv) partial hydrolysis of the polyphosphoric acid present in the membrane formed in step iii), i) preparation of a mixture comprising polyphosphoric acid, at least one polyazole and/or at least one or more compounds which are suitable for the formation of polyazoles with action of heat in accordance with step ii), ii) heating the mixture obtainable in accordance with step i) under inert gas to temperatures of up to 400°C, iii) applying a layer using the mixture in accordance with step i) and/or ii) to a support, iv) partial hydrolysis of the polyphosphoric acid present in the membrane formed in step iii), i. a precious metal of the platinum group, wherein the precious metal is platinum, and ii. a metal less precious according to the electrochemical series than the metal mentioned in (i.), this (less precious) metal being nickel.
A polymerized biorenewable, previously modified, or functionalized oil ("polymerized oil"), crosslinked with a sulfur-containing compound, comprising (a) a polymeric distribution having about 2 to about 80 wt% oligomer content, where oligomer is defined as a polymer having a number average molecular weight (Mn) larger than 1000; (b) a polydispersity index ranging from about 1.30 to about 2.20; and (c) sulfur content ranging from 0.001 wt% to about 8 wt%. (a) a polymeric distribution having about 2 to about 80 wt% oligomer content, where oligomer is defined as a polymer having a number average molecular weight (Mn) larger than 1000; (b) a polydispersity index ranging from about 1.30 to about 2.20; and (c) sulfur content ranging from 0.001 wt% to about 8 wt%.
A transparent molded body comprising a transparent substrate and an uneven layer composed of a cured product of an active energy ray-curable composition formed on at least one surface of the transparent substrate, wherein the uneven layer has an uneven structure having a gap between the adjacent convex portions equal to or less than the wavelength of visible light, the water contact angle of the surface of the uneven layer is equal to or less than 25°, and the modulus of elasticity of the surface of the uneven layer is equal to or more than 200 MPa.