mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a hearing aid system having at least two hearing aid devices , wherein the hearing aid devices have a transducer for picking up an audible signal and converting it into a respective first audio signal, wherein the hearing aid system has a signal processing apparatus for processing audio signals and the hearing aid system has a signal connection for transmitting the respective first audio signal from each hearing aid device to the signal processing apparatus , and wherein the signal processing apparatus has a predetermined filter having predetermined filter coefficients for a given spatial direction, characterized in that the signal processing apparatus carries out the following steps for aligning components of a useful signal in the picked-up audio signals of the audible signal in third audio signals, wherein the useful signal arrives from the given spatial direction in relation to the hearing aid system: filtering (S20) the first audio signals using a filter predetermined for the given spatial direction, so that second audio signals are generated, wherein the predetermined filter is designed such that the components of the useful signal are aligned with one another to a greater extent in the second audio signals than in the first audio signals; and filtering (S30) the second audio signals using an adaptive filter , so that third audio signals are generated, wherein the adaptive filter is designed such that the components of the useful signal are aligned with one another to a greater extent in the third audio signals than in the second audio signals. filtering (S20) the first audio signals using a filter predetermined for the given spatial direction, so that second audio signals are generated, wherein the predetermined filter is designed such that the components of the useful signal are aligned with one another to a greater extent in the second audio signals than in the first audio signals; and filtering (S30) the second audio signals using an adaptive filter , so that third audio signals are generated, wherein the adaptive filter is designed such that the components of the useful signal are aligned with one another to a greater extent in the third audio signals than in the second audio signals.
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 system for transmitting light effects specified in a light script to at least one of a plurality of lighting devices (31-35), said system comprising: at least one transmitter ; and at least one processor configured to: - determine for each respective light effect of said light effects an allocation of said respective light effect to one or more first lighting devices (31-33) of said plurality of lighting devices (31-35), characterised in that the at least one processor is further configured to: - select, from said plurality of lighting devices (31-35), a second lighting device to which none of said light effects has been allocated, and - transmit, via said least one transmitter , a request to said second lighting device , said request requesting said second lighting device to control said one or more first lighting devices (31-33) to render said light effects, said request defining said light effects for said one or more first lighting devices (31-33) as specified in said light script. at least one transmitter ; and at least one processor configured to: - determine for each respective light effect of said light effects an allocation of said respective light effect to one or more first lighting devices (31-33) of said plurality of lighting devices (31-35), - determine for each respective light effect of said light effects an allocation of said respective light effect to one or more first lighting devices (31-33) of said plurality of lighting devices (31-35), - select, from said plurality of lighting devices (31-35), a second lighting device to which none of said light effects has been allocated, and - transmit, via said least one transmitter , a request to said second lighting device , said request requesting said second lighting device to control said one or more first lighting devices (31-33) to render said light effects, said request defining said light effects for said one or more first lighting devices (31-33) as specified in said light script.
3-Phenyl-5-trifluoromethylisoxazoline-5-carboxamides of the general formula (I) and agrochemically acceptable salts thereof, in which R 1 represents hydrogen, or represents (C 1 -C 6 )-alkyl, in each case substituted by m radicals from the group consisting of fluorine, chlorine and (C 1 -C 2 )-alkoxy; X 1 and X 3 independently of one another represent hydrogen, halogen, cyano, X 2 represents hydrogen, m is the serial number and is 0, 1. R 1 represents hydrogen, or represents (C 1 -C 6 )-alkyl, in each case substituted by m radicals from the group consisting of fluorine, chlorine and (C 1 -C 2 )-alkoxy; X 1 and X 3 independently of one another represent hydrogen, halogen, cyano, X 2 represents hydrogen, m is the serial number and is 0, 1.
A method performed by a first node in a wireless communication system, the method comprising: receiving, from a second node, coordination information including an index for indicating a density pattern of a second phase tracking reference signal, PTRS; transmitting, to a terminal, configuration information including information on a first subcarrier offset for a first PTRS; and transmitting, to the terminal, the first PTRS based on the coordination information, wherein the first subcarrier offset for the first PTRS is different from a second subcarrier offset for the second PTRS. receiving, from a second node, coordination information including an index for indicating a density pattern of a second phase tracking reference signal, PTRS; transmitting, to a terminal, configuration information including information on a first subcarrier offset for a first PTRS; and transmitting, to the terminal, the first PTRS based on the coordination information, wherein the first subcarrier offset for the first PTRS is different from a second subcarrier offset for the second PTRS.
An air conditioning apparatus, comprising: a unit main body ; a heat exchanger ; and at least one blower fan , wherein the heat exchanger is arranged on an upstream side of the blower fan , wherein the blower fan comprises an impeller , a motor , and a fan casing , wherein the impeller comprises a turbofan that sucks air from an upper portion thereof and blows out the air radially outward, wherein a rotation axis of the impeller is directed to a unit height direction, wherein the fan casing has a fan air inlet formed in an upper surface thereof, and has a fan air outlet formed in a lower surface thereof, and wherein an impeller air outlet of the impeller is covered by side surfaces of the fan casing , wherein the impeller comprises a plurality of blades , a side plate having a ring shape, and a main plate , wherein the side plate is positioned on the fan air inlet side, and the main plate is positioned on the fan air outlet side, characterized in that an outer diameter (φDs) of the side plate is larger than an outer diameter (φDm) of the main plate , wherein the side surfaces of the fan casing comprise at least one flat surface, the fan casing comprises at least one chamfered portion , with reference to a rectangular shape of the fan casing in plane view, at a portion corresponding to a corner of the rectangular shape, and a space penetrating in a vertical direction is formed on the outside of the chamfered portion . a unit main body ; a heat exchanger ; and at least one blower fan , wherein the heat exchanger is arranged on an upstream side of the blower fan , wherein the blower fan comprises an impeller , a motor , and a fan casing , wherein the impeller comprises a turbofan that sucks air from an upper portion thereof and blows out the air radially outward, wherein a rotation axis of the impeller is directed to a unit height direction, wherein the fan casing has a fan air inlet formed in an upper surface thereof, and has a fan air outlet formed in a lower surface thereof, and wherein an impeller air outlet of the impeller is covered by side surfaces of the fan casing , wherein the impeller comprises a plurality of blades , a side plate having a ring shape, and a main plate , wherein the side plate is positioned on the fan air inlet side, and the main plate is positioned on the fan air outlet side, characterized in that an outer diameter (φDs) of the side plate is larger than an outer diameter (φDm) of the main plate , wherein the side surfaces of the fan casing comprise at least one flat surface, the fan casing comprises at least one chamfered portion , with reference to a rectangular shape of the fan casing in plane view, at a portion corresponding to a corner of the rectangular shape, and a space penetrating in a vertical direction is formed on the outside of the chamfered portion .
A chlorine-free multilayer film, comprising: a barrier layer formed of amorphous polyamide resin present in a concentration of about 65 percent to about 100 percent by weight of the barrier layer and a maleic anhydride modified or glycidyl methacrylate grafted resin, present in a concentration of about 0 percent to about 35 percent by weight of the barrier layer, the barrier layer being substantially impermeable to malodor causing compounds; at least one skin layer, the at least one skin layer comprising an ethylene vinyl acetate or ethylene methyl acrylate copolymer and blends thereof, and polypropylene- based resins and blends thereof; and at least one tie layer arranged between the barrier layer and the at least one skin layer, the at least one tie layer formed of a maleic anhydride modified resin, the resin being one or more of an ethylene-based copolymer, a propylene-based copolymer, an ethylene-octene polymer and a styrene block copolymer; characterized in that the at least one tie layer has a maleic anhydride content of between about 0.030% and about 0.080% by weight. a barrier layer formed of amorphous polyamide resin present in a concentration of about 65 percent to about 100 percent by weight of the barrier layer and a maleic anhydride modified or glycidyl methacrylate grafted resin, present in a concentration of about 0 percent to about 35 percent by weight of the barrier layer, the barrier layer being substantially impermeable to malodor causing compounds; at least one skin layer, the at least one skin layer comprising an ethylene vinyl acetate or ethylene methyl acrylate copolymer and blends thereof, and polypropylene- based resins and blends thereof; and at least one tie layer arranged between the barrier layer and the at least one skin layer, the at least one tie layer formed of a maleic anhydride modified resin, the resin being one or more of an ethylene-based copolymer, a propylene-based copolymer, an ethylene-octene polymer and a styrene block copolymer; characterized in that the at least one tie layer has a maleic anhydride content of between about 0.030% and about 0.080% by weight.
Vehicle lighting device comprising: - a lens (1; 101) intended to deflect the light rays emitted by a light source and comprising a wheel sector (11; 111) with a driven surface (12; 112), the wheel sector being made in one piece with the lens as a whole, - a driving means (60; 160) with a driving surface (61'; 161) such that the driving surface is in contact with the driven surface and movement of the driving surface drives movement of the lens; characterized in that the wheel sector is a toothed wheel sector (11; 111), the raised patterns of the driven surface (12; 112) being teeth and the wheel sector (11; 111) forms an arm extending lengthwise between a first end connected to the lens (1; 101) and a free second end, the latter carrying the driven surface (61'; 161). - a lens (1; 101) intended to deflect the light rays emitted by a light source and comprising a wheel sector (11; 111) with a driven surface (12; 112), the wheel sector being made in one piece with the lens as a whole, - a driving means (60; 160) with a driving surface (61'; 161) such that the driving surface is in contact with the driven surface and movement of the driving surface drives movement of the lens; characterized in that the wheel sector is a toothed wheel sector (11; 111), the raised patterns of the driven surface (12; 112) being teeth and the wheel sector (11; 111) forms an arm extending lengthwise between a first end connected to the lens (1; 101) and a free second end, the latter carrying the driven surface (61'; 161).
A method for guiding a user using a controller of a multimedia apparatus to move within a angle-of-view range of a camera connected to the multimedia apparatus , comprising: determining whether the user is within the angle-of-view range of the camera; and if it is determined that the user is not within the angle-of-view range of the camera: acquiring sensor information indicating movements of the controller corresponding to the user being outside the angle-of-view range of the camera; estimating a location of the controller which is outside the angle-of-view range of the camera based on the sensor information; and outputting guidance information based on the estimated location of the controller to guide the user to move within the angle-of-view range of the camera. determining whether the user is within the angle-of-view range of the camera; and if it is determined that the user is not within the angle-of-view range of the camera: acquiring sensor information indicating movements of the controller corresponding to the user being outside the angle-of-view range of the camera; estimating a location of the controller which is outside the angle-of-view range of the camera based on the sensor information; and outputting guidance information based on the estimated location of the controller to guide the user to move within the angle-of-view range of the camera. acquiring sensor information indicating movements of the controller corresponding to the user being outside the angle-of-view range of the camera; estimating a location of the controller which is outside the angle-of-view range of the camera based on the sensor information; and outputting guidance information based on the estimated location of the controller to guide the user to move within the angle-of-view range of the camera.
Method for reducing a risk of a collision between a motor vehicle and an object, wherein the motor vehicle is driving in a driverless manner within a parking area , comprising the following steps of: - specifying a safety area which defines a delimited section of a current motor vehicle environment of a motor vehicle driving within a parking area , - identifying a location classified as critical within a parking area , wherein the identification of the critical location comprises an environmental analysis of environmental data with regard to possible critical locations, wherein the environmental data are provided by means of one or more environmental sensors which have captured the current motor vehicle environment, wherein one or more of the environmental sensors are environmental sensors of the parking area , - adapting the specified safety area , when the motor vehicle is driving towards the critical location, such that the critical location is within the adapted safety area , - monitoring the adapted safety area , while the motor vehicle is driving towards the critical location, for an object moving into the adapted safety area and/or for an object within the adapted safety area , - controlling performance of one or more safety actions on the basis of the monitoring in order to reduce a risk of a collision between the motor vehicle and the object, wherein the one or more safety actions are elements of the following group of safety actions: reducing a current motor vehicle speed, preparing a brake system of the motor vehicle for braking, carrying out an emergency stop. - specifying a safety area which defines a delimited section of a current motor vehicle environment of a motor vehicle driving within a parking area , - identifying a location classified as critical within a parking area , wherein the identification of the critical location comprises an environmental analysis of environmental data with regard to possible critical locations, wherein the environmental data are provided by means of one or more environmental sensors which have captured the current motor vehicle environment, wherein one or more of the environmental sensors are environmental sensors of the parking area , - adapting the specified safety area , when the motor vehicle is driving towards the critical location, such that the critical location is within the adapted safety area , - monitoring the adapted safety area , while the motor vehicle is driving towards the critical location, for an object moving into the adapted safety area and/or for an object within the adapted safety area , - controlling performance of one or more safety actions on the basis of the monitoring in order to reduce a risk of a collision between the motor vehicle and the object, wherein the one or more safety actions are elements of the following group of safety actions: reducing a current motor vehicle speed, preparing a brake system of the motor vehicle for braking, carrying out an emergency stop.
Method for a mass-spectrometric analysis of a gas comprising the steps of: ionizing the gas to generate ions , storing, exciting and detecting at least a part of the generated ions in a Fourier transformation (FT) ion trap , comprising the steps of: exciting the ions in the FT ion trap and recording a first frequency spectrum , changing the phasing (φ) and/or the oscillation amplitude (z/z 0 ) of the ions in the FT ion trap and/or changing the ion resonance frequencies (f ion ) of the ions in the FT ion trap , re-exciting the ions in the FT ion trap and recording a second frequency spectrum , as well as detecting disturbance frequencies (f R ) in the FT ion trap by comparing the first and the second recorded frequency spectrum as frequency components which do not react to the change of the phase and/or the oscillation amplitude and/or the ion resonance frequency of the ions. ionizing the gas to generate ions , storing, exciting and detecting at least a part of the generated ions in a Fourier transformation (FT) ion trap , comprising the steps of: exciting the ions in the FT ion trap and recording a first frequency spectrum , changing the phasing (φ) and/or the oscillation amplitude (z/z 0 ) of the ions in the FT ion trap and/or changing the ion resonance frequencies (f ion ) of the ions in the FT ion trap , re-exciting the ions in the FT ion trap and recording a second frequency spectrum , as well as detecting disturbance frequencies (f R ) in the FT ion trap by comparing the first and the second recorded frequency spectrum as frequency components which do not react to the change of the phase and/or the oscillation amplitude and/or the ion resonance frequency of the ions. exciting the ions in the FT ion trap and recording a first frequency spectrum , changing the phasing (φ) and/or the oscillation amplitude (z/z 0 ) of the ions in the FT ion trap and/or changing the ion resonance frequencies (f ion ) of the ions in the FT ion trap , re-exciting the ions in the FT ion trap and recording a second frequency spectrum , as well as detecting disturbance frequencies (f R ) in the FT ion trap by comparing the first and the second recorded frequency spectrum as frequency components which do not react to the change of the phase and/or the oscillation amplitude and/or the ion resonance frequency of the ions.