mhurhangee/ep-ind-claims huggingface dataset:
A frequency analysis system, comprising: an analogue to digital converter having a sampling frequency f s and configured to sample a signal whose frequency is to be analysed; a first band pass filter and a second band pass filter, the first band pass filter and the second band pass filter being arranged in parallel with one another, wherein each of the filters has the same centre frequency; and a feedback loop from the output to an input of the system, wherein the output of the system is the combination of the outputs of the two band pass filters, wherein the analogue to digital converter is configured to provide its output signal to the inputs of the band pass filters; wherein the system has an initial centre frequency equal to a nominal frequency f 0, and a revised centre frequency dependent upon the output of the system that is fed back into the input of the system, wherein the transfer functions of the first and second band pass filters have the same poles, and wherein the system is configured such that, when the centre frequency f c equals the frequency of the input signal f i to the system, the output of the first band pass filter is in phase with the input, the output of the second band pass filter lags the output of the first band pass filter at a constant phase of π 2, and the two band pass filters have equal gain amplitude. an analogue to digital converter having a sampling frequency f s and configured to sample a signal whose frequency is to be analysed; a first band pass filter and a second band pass filter, the first band pass filter and the second band pass filter being arranged in parallel with one another, wherein each of the filters has the same centre frequency; and a feedback loop from the output to an input of the system, wherein the output of the system is the combination of the outputs of the two band pass filters, wherein the analogue to digital converter is configured to provide its output signal to the inputs of the band pass filters; wherein the system has an initial centre frequency equal to a nominal frequency f 0, and a revised centre frequency dependent upon the output of the system that is fed back into the input of the system, wherein the transfer functions of the first and second band pass filters have the same poles, and wherein the system is configured such that, when the centre frequency f c equals the frequency of the input signal f i to the system, the output of the first band pass filter is in phase with the input, the output of the second band pass filter lags the output of the first band pass filter at a constant phase of π 2, and the two band pass filters have equal gain amplitude.
A language model back-off system for use with a user interface employing one or more language models to constrain navigation of selectable user interface input components representing a set of characters based on at least one previous selection of characters made by the user, the system comprising: an on-screen user interface for displaying selectable characters controllable by a remote controller, a navigation constraint module employing the plurality of language models to constrain user navigation based on previous selections of characters made by the user, a user input interpretation module receiving user input and interpreting the user input to determine if a selection is made of one or more user interface input components, wherein said user input interpretation module, if a selection is not made based on a time since a previous selection, determines that conditions are met for backing off at least one of the one or more language models employed to constrain navigation of the user interface input components with a replacement language model, wherein the replacement language model provides a lower level of constraint than the language model that is to be backed off and defines a set of selectable user interface components that is larger than the set of user interface components defined by the one or more language models that are to be replaced; and a language model back-off module replacing at least one of the one or more language models with the replacement language model if the conditions are met, further comprising a user interface displaying the user interface input components with a focus indicator, the focus indicator operable to visually indicate selectable user interface input components. an on-screen user interface for displaying selectable characters controllable by a remote controller, a navigation constraint module employing the plurality of language models to constrain user navigation based on previous selections of characters made by the user, a user input interpretation module receiving user input and interpreting the user input to determine if a selection is made of one or more user interface input components, wherein said user input interpretation module, if a selection is not made based on a time since a previous selection, determines that conditions are met for backing off at least one of the one or more language models employed to constrain navigation of the user interface input components with a replacement language model, wherein the replacement language model provides a lower level of constraint than the language model that is to be backed off and defines a set of selectable user interface components that is larger than the set of user interface components defined by the one or more language models that are to be replaced; and a language model back-off module replacing at least one of the one or more language models with the replacement language model if the conditions are met, further comprising a user interface displaying the user interface input components with a focus indicator, the focus indicator operable to visually indicate selectable user interface input components.
Process for the separation of a stream containing carbon dioxide, water and at least one light impurity including a separation step at subambient temperature wherein: i) the stream (1,3) is compressed in a compressor (C1, C2, C3) comprising at least two stages to form a feed stream and the feed stream contains at least 65 mol.% carbon dioxide ii) the feed stream is purified in an adsorption unit (A1, A2) to remove water and form a dried compressed stream (9, 11), iii) the dried compressed stream is cooled to a subambient temperature and separated by partial condensation in a phase separator and distillation in a separation apparatus, iv) liquid enriched in carbon dioxide (37, 43) is removed from the separation apparatus, v) the adsorption unit is regenerated using a regeneration gas (25, 53), vi) the gas from the phase separator is separated in a permeation unit, characterized in that the permeate of the permeation unit constitutes the regeneration gas. i) the stream (1,3) is compressed in a compressor (C1, C2, C3) comprising at least two stages to form a feed stream and the feed stream contains at least 65 mol.% carbon dioxide ii) the feed stream is purified in an adsorption unit (A1, A2) to remove water and form a dried compressed stream (9, 11), iii) the dried compressed stream is cooled to a subambient temperature and separated by partial condensation in a phase separator and distillation in a separation apparatus, iv) liquid enriched in carbon dioxide (37, 43) is removed from the separation apparatus, v) the adsorption unit is regenerated using a regeneration gas (25, 53), vi) the gas from the phase separator is separated in a permeation unit, characterized in that the permeate of the permeation unit constitutes the regeneration gas.
A method for determining the impact point of a projectile fired at a surface target, e.g., a target above sea surface, using a radar system comprising a single radar antenna for target tracking, said radar antenna emitting electromagnetic signals forming a single antenna beam essentially pointing toward said surface target, which is tracked using said antenna beam, the trajectory of the projectile passing through said antenna beam, the method comprising the steps of: - emitting a number of successive radar bursts; - measuring the ranges of the radar echoes received within the antenna beam or through sidelobes, in response to said radar bursts; - applying Doppler filtering for said ranges to distinguish the projectile measurements from measurements related to the tracked surface target and sea clutter measurements; - performing detection of the projectile at successive times using said Doppler filtering; - predicting the impact point of the projectile from measurements related to one or more detections of the projectile, said measurements including the range, the bearing and the time of the last detection of the projectile, wherein the method further comprises determining that the projectile hits a water surface or the surface target if no projectile measurement has been obtained over a period of time longer than a given time-out period after a time t n corresponding to the time of the last detection of the projectile, wherein the given time-out period of time corresponds to a time period during which the projectile is to be located between two sidelobes or between a sidelobe and the antenna beam. - emitting a number of successive radar bursts; - measuring the ranges of the radar echoes received within the antenna beam or through sidelobes, in response to said radar bursts; - applying Doppler filtering for said ranges to distinguish the projectile measurements from measurements related to the tracked surface target and sea clutter measurements; - performing detection of the projectile at successive times using said Doppler filtering; - predicting the impact point of the projectile from measurements related to one or more detections of the projectile, said measurements including the range, the bearing and the time of the last detection of the projectile,
A composition comprising: an extract of incense and/or an extract of myrrh; and an extract of Centella asiatica, an extract of Hypericum, jojoba oil, beeswax, excipients for the treatment or for the prevention of the onset or of the aggravation of skin lesions that do not involve the presence of open wounds.
An electronic device for wireless communications, comprising: processing circuitry (101, 102), configured to: acquire Downlink Control Information, DCI, from a base station; and determine, at least based on a combination of a first particular field and another particular field of the DCI, whether a feedback mechanism of a Hybrid Automatic Repeat Request, HARQ, process is disabled, wherein, in a case of determining that the feedback mechanism of the Hybrid Automatic Repeat Request process is disabled, a check result for a data packet is not fed back to the base station; wherein the first particular field is a Physical Downlink Shared Channel, PDSCH, to HARQ feedback timing indicator and the other particular field includes one or more of a Physical Uplink Control Channel, PUCCH, resource indicator and a Transmit Power Control, TPC, command for scheduled PUCCH; and the processing circuitry (101, 102) is configured to determine that the feedback mechanism of the HARQ process is disabled when one of: a value of each field in the combination is all '0's; a value of each field in the combination is all 1's; or each of values of some fields in the combination are all '0's and each of values of the other fields in the combination are all '1's. acquire Downlink Control Information, DCI, from a base station; and determine, at least based on a combination of a first particular field and another particular field of the DCI, whether a feedback mechanism of a Hybrid Automatic Repeat Request, HARQ, process is disabled, wherein, in a case of determining that the feedback mechanism of the Hybrid Automatic Repeat Request process is disabled, a check result for a data packet is not fed back to the base station; wherein the first particular field is a Physical Downlink Shared Channel, PDSCH, to HARQ feedback timing indicator and the other particular field includes one or more of a Physical Uplink Control Channel, PUCCH, resource indicator and a Transmit Power Control, TPC, command for scheduled PUCCH; and the processing circuitry (101, 102) is configured to determine that the feedback mechanism of the HARQ process is disabled when one of: a value of each field in the combination is all '0's; a value of each field in the combination is all 1's; or each of values of some fields in the combination are all '0's and each of values of the other fields in the combination are all '1's. a value of each field in the combination is all '0's; a value of each field in the combination is all 1's; or each of values of some fields in the combination are all '0's and each of values of the other fields in the combination are all '1's.
A method for controlling a system comprising a Head Mount Display and an external hand held device, the method comprising: detecting the external device in an image captured by the HMD; recognizing at least one component displayed on a first User Interface of the external device, the at least one component including a keypad and a window for outputting data corresponding to an input signal received on the keypad; detecting a shape of a user's grip on the external device using the image captured by the HMD and adjusting the layout of the keypad according to the detected grip shape; generating a second UI including the recognized at least one component, wherein the second UI includes a preset component which includes the keypad having the layout adjusted according to the detected grip shape; displaying the second UI in the HMD, wherein the at least one component of the first UI being displayed on the external device is overlaid with the displayed second UI using the image from which the external device is detected; receiving data at the HMD from the external device corresponding to the input signal through a communications unit; and displaying data corresponding to the input signal currently received at the external device on the second UI in the HMD, wherein when the second UI is displayed in the HMD a protection layer is displayed over the at least one component of the first UI of the external device over laid with the second UI, to make data displayed on the first UI unseen or unidentifiable. detecting the external device in an image captured by the HMD; recognizing at least one component displayed on a first User Interface of the external device, the at least one component including a keypad and a window for outputting data corresponding to an input signal received on the keypad; detecting a shape of a user's grip on the external device using the image captured by the HMD and adjusting the layout of the keypad according to the detected grip shape; generating a second UI including the recognized at least one component, wherein the second UI includes a preset component which includes the keypad having the layout adjusted according to the detected grip shape; displaying the second UI in the HMD, wherein the at least one component of the first UI being displayed on the external device is overlaid with the displayed second UI using the image from which the external device is detected; receiving data at the HMD from the external device corresponding to the input signal through a communications unit; and displaying data corresponding to the input signal currently received at the external device on the second UI in the HMD, wherein when the second UI is displayed in the HMD a protection layer is displayed over the at least one component of the first UI of the external device over laid with the second UI, to make data displayed on the first UI unseen or unidentifiable.
A method for amplifying a signal for a target molecule in a sample, the method comprising: a. applying to the sample a first binding agent specific for the target molecule; b. applying to the sample a second binding agent specific for the first binding agent, wherein the second binding agent is conjugated with a secondary enzyme; c. applying to the sample a tyramide agent comprising a tyramide molecule conjugated with a hapten, wherein the secondary enzyme catalyzes deposition of the hapten onto the sample at the location of the second binding agent; d. applying to the sample a third binding agent specific for the hapten, wherein the third binding agent is conjugated with a tertiary enzyme; and e. applying to the sample a detectable moiety, wherein the tertiary enzyme catalyzes a reaction with the detectable moiety to make the detectable moiety visible, wherein the detectable moiety comprises a tyramide-rhodamine dye. a. applying to the sample a first binding agent specific for the target molecule; b. applying to the sample a second binding agent specific for the first binding agent, wherein the second binding agent is conjugated with a secondary enzyme; c. applying to the sample a tyramide agent comprising a tyramide molecule conjugated with a hapten, wherein the secondary enzyme catalyzes deposition of the hapten onto the sample at the location of the second binding agent; d. applying to the sample a third binding agent specific for the hapten, wherein the third binding agent is conjugated with a tertiary enzyme; and e. applying to the sample a detectable moiety, wherein the tertiary enzyme catalyzes a reaction with the detectable moiety to make the detectable moiety visible,
Method of determining the closing time of the needle valve in a solenoid controlled fuel injector including a solenoid controlled actuator, said actuator adapted to control a needle valve by the movement of a needle to and from a valve seat of said needle valve, said method of determining the closing time of the needle valve when the valve needle contacts the valve seat during an operational cycle of said fuel injector, and subsequently controlling said injector based on said closing time comprising the steps of a) providing a reference curve/signal, Ref, wherein said reference curve/signal, Ref is indicative of the voltage across the solenoid against time of said injector or a reference injector during an operational cycle where injection does not occur; b) activating said injector by sending an activation pulse to said solenoid, and from a timepoint after the end of the activation pulse, measuring the voltage signal across the terminals of said solenoid to provide a solenoid voltage signal, Raw signal, c) determining a difference signal, Delta signal based on the difference between the signal of a step a) and that determined in step b); d) differentiating said signal of step c) to provide a first differential signal Diff1 e) from step d) providing a signal Diff1_Normalised of values, whose values decrease the further away from zero the values of Diff1 are; f) differentiating the plot/signal of step d) to provide a second derivative Diff2 of said Delta_signal g) multiplying the values of plots/signals from step f), step e) and c) to provide a further plot, Mix h) determining the maximum peak value of the plot from step g), or a filtered version thereof, and determining the valve closing time from the time point of said determined maximum peak; i) subsequently controlling said fuel injector based on the result of step h). a) providing a reference curve/signal, Ref, wherein said reference curve/signal, Ref is indicative of the voltage across the solenoid against time of said injector or a reference injector during an operational cycle where injection does not occur; b) activating said injector by sending an activation pulse to said solenoid, and from a timepoint after the end of the activation pulse, measuring the voltage signal across the terminals of said solenoid to provide a solenoid voltage signal, Raw signal, c) determining a difference signal, Delta signal based on the difference between the signal of a step a) and that determined in step b); d) differentiating said signal of step c) to provide a first differential signal Diff1 e) from step d) providing a signal Diff1_Normalised of values, whose values decrease the further away from zero the values of Diff1 are; f) differentiating the plot/signal of step d) to provide a second derivative Diff2 of said Delta_signal g) multiplying the values of plots/signals from step f), step e) and c) to provide a further plot, Mix h) determining the maximum peak value of the plot from step g), or a filtered version thereof, and determining the valve closing time from the time point of said determined maximum peak; i) subsequently controlling said fuel injector based on the result of step h).
A unibody double-sink washbasin comprising a lower sink edge, a lower sink drain pipe, a lower sink drain, a lower sink faucet, a lower sink, an upper sink edge, an upper sink drain pipe, an upper sink overflow hole, an upper sink drain, wall mounting part, an upper sink faucet and upper sink, -a coupling piece which connects the upper sink with the lower sink, a lower sink wall coupling part whereby in use the lower sink contacts the wall, and a double sink washbasin bottom edge; wherein the lower sink has a smaller size compared to the upper sink and the lower sink edge is positioned to be closer to the wall than the upper sink edge when said double-sink wash basin is mounted, characterised in that the lower sink with the coupling piece is, when viewed from the side, in a reversed "J" shape, and in that the double-sink washbasin comprises - washing sensor connection holes located on upper sink faucet and the lower sink faucet - and a lower sink overflow hole -a coupling piece which connects the upper sink with the lower sink, a lower sink wall coupling part whereby in use the lower sink contacts the wall, and a double sink washbasin bottom edge; wherein the lower sink has a smaller size compared to the upper sink and the lower sink edge is positioned to be closer to the wall than the upper sink edge when said double-sink wash basin is mounted, characterised in that the lower sink with the coupling piece is, when viewed from the side, in a reversed "J" shape, and in that the double-sink washbasin comprises - washing sensor connection holes located on upper sink faucet and the lower sink faucet - and a lower sink overflow hole - washing sensor connection holes located on upper sink faucet and the lower sink faucet - and a lower sink overflow hole
A fastening system for releasably fixing a second component on a first component, such as attaching a covering component to a component of a vehicle body, with at least one spacer which can be fixed, on its one side, to the first component by means of a first fastening means, and is provided on its opposite side with a first touch-and-close fastener part which can be brought into releasable engagement with a corresponding second touch-and-close fastener part which, on its side which faces away from the fastener elements (28, 34) of the first touch-and-close fastener part and second touch-and-close fastener part respectively, can be fixed on the second component by means of a second fastening means, wherein the spacer can be fixed on the first component by means of a screw connection which forms the first fastening means, wherein the spacer has a drilled hole for forming the screw connection, the opening edge of which drilled hole faces the fastener elements and has a conical expansion in which the head of a countersunk head screw can be received such that the upper end of the head is located below the fastener elements, wherein the opening edge of the drilled hole is surrounded by an annular rib which is concentric to the drilled hole, the height of which annular rib is equal to or less than the thickness of a substrate layer of the fastener elements, and wherein the first touch-and-close fastener part has a round opening penetrating the substrate layer, in which opening the annular rib can be received in a centring manner at the opening edge of the drilled hole.