mhurhangee/ep-ind-claims huggingface dataset:
A bit allocation method for an audio object, comprising: separately pre-rendering a plurality of audio objects to be pre-rendered in a to-be-encoded audio frame, to obtain a plurality of pre-rendered audio objects; obtaining respective perceptual importance parameter values of the plurality of pre-rendered audio objects, wherein a perceptual importance parameter value of a current pre-rendered audio object in the plurality of pre-rendered audio objects indicates a perceptual importance degree of the current pre-rendered audio object in the plurality of pre-rendered audio objects; obtaining a bit allocation parameter value of a current audio object to be pre-rendered in the plurality of audio objects to be pre-rendered based on the respective perceptual importance parameter values of the plurality of pre-rendered audio objects; and determining, based on the bit allocation parameter value of the current audio object to be pre-rendered and a total quantity of to-be-allocated bits corresponding to the plurality of audio objects to be pre-rendered, a target quantity of bits allocated to the current audio object to be pre-rendered. separately pre-rendering a plurality of audio objects to be pre-rendered in a to-be-encoded audio frame, to obtain a plurality of pre-rendered audio objects; obtaining respective perceptual importance parameter values of the plurality of pre-rendered audio objects, wherein a perceptual importance parameter value of a current pre-rendered audio object in the plurality of pre-rendered audio objects indicates a perceptual importance degree of the current pre-rendered audio object in the plurality of pre-rendered audio objects; obtaining a bit allocation parameter value of a current audio object to be pre-rendered in the plurality of audio objects to be pre-rendered based on the respective perceptual importance parameter values of the plurality of pre-rendered audio objects; and determining, based on the bit allocation parameter value of the current audio object to be pre-rendered and a total quantity of to-be-allocated bits corresponding to the plurality of audio objects to be pre-rendered, a target quantity of bits allocated to the current audio object to be pre-rendered.
A cooking appliance that is remotely controllable by a terminal, the cooking appliance comprising: a communicator configured to perform communication with the terminal; an input unit configured to receive cooking related information from a user; characterized in that the cooking appliance further comprises a controller configured to: select a remote control mode of the cooking appliance during which remote control of the cooking appliance by the terminal is available, set a remote control available time, the remote control available time being a time until which remote control of the cooking appliance by the terminal is available, based on information on the remote control available time received via at least one of the communicator and the input unit, and control the communication with the terminal until the set remote control available time is reached. a communicator configured to perform communication with the terminal; an input unit configured to receive cooking related information from a user; characterized in that the cooking appliance further comprises a controller configured to: select a remote control mode of the cooking appliance during which remote control of the cooking appliance by the terminal is available, set a remote control available time, the remote control available time being a time until which remote control of the cooking appliance by the terminal is available, based on information on the remote control available time received via at least one of the communicator and the input unit, and control the communication with the terminal until the set remote control available time is reached. select a remote control mode of the cooking appliance during which remote control of the cooking appliance by the terminal is available, set a remote control available time, the remote control available time being a time until which remote control of the cooking appliance by the terminal is available, based on information on the remote control available time received via at least one of the communicator and the input unit, and control the communication with the terminal until the set remote control available time is reached.
A radio signal processing system for an aircraft, the radio signal processing system comprising: a first antenna; a second antenna; a switch switchably coupling the first antenna and the second antenna to a wideband multi-channel receiver; at least one processing unit (406, 408) communicatively coupled to the wideband multi-channel receiver; wherein the at least one processing unit (406, 408) is configured to receive both a first signal and a second signal from the first antenna through the wideband multi-channel receiver when the system is operating in a first mode and the switch is in a first position, wherein the first signal is an instrument landing system mode localizer signal, wherein the second signal is a VHF Omnidirectional Range signal; wherein the at least one processing unit (406, 408) is configured to receive both the first signal and the second signal from the second antenna through the wideband multi-channel receiver when the system is operating in the first mode and the switch is in a second position; wherein the at least one processing unit (406, 408) is configured to receive both a third signal and the second signal from the first antenna through the wideband multi-channel receiver when the system is operating in a second mode and the switch is in the first position, wherein the third signal is a VHF Data Broadcast signal; and wherein the at least one processing unit (406, 408) is configured to receive both the third signal and the second signal from the second antenna through the wideband multi-channel receiver when the system is operating in the second mode and the switch is in the second position. a first antenna; a second antenna; a switch switchably coupling the first antenna and the second antenna to a wideband multi-channel receiver; at least one processing unit (406, 408) communicatively coupled to the wideband multi-channel receiver; wherein the at least one processing unit (406, 408) is configured to receive both a first signal and a second signal from the first antenna through the wideband multi-channel receiver when the system is operating in a first mode and the switch is in a first position, wherein the first signal is an instrument landing system mode localizer signal, wherein the second signal is a VHF Omnidirectional Range signal; wherein the at least one processing unit (406, 408) is configured to receive both the first signal and the second signal from the second antenna through the wideband multi-channel receiver when the system is operating in the first mode and the switch is in a second position; wherein the at least one processing unit (406, 408) is configured to receive both a third signal and the second signal from the first antenna through the wideband multi-channel receiver when the system is operating in a second mode and the switch is in the first position, wherein the third signal is a VHF Data Broadcast signal; and wherein the at least one processing unit (406, 408) is configured to receive both the third signal and the second signal from the second antenna through the wideband multi-channel receiver when the system is operating in the second mode and the switch is in the second position.
A method of supplying power for ozone generation, comprising: providing a transformer-less oscillator, comprising a power source and a resonant circuit (330; 420; 720), the resonant circuit (330; 420; 720) comprising a resonant inductor (422; 722) coupled in series with a resonant capacitor (424; 724), directly coupling the resonant circuit (330; 420; 720) between the power source (320; 410; 710) and an ozone generating unit, wherein the ozone generating unit is coupled in parallel with a resonant capacitor (424, 724) of the resonant circuit (330; 420; 720); providing a first AC voltage from the power source (320; 410; 710) to the resonant circuit (330; 420; 720); and providing a second AC voltage from the resonant circuit (330; 420; 720) to the ozone generating unit, the second AC voltage being greater than the first AC voltage, characterized in that the resonant circuit (330; 420; 720) has a q-factor greater than or equal to 10. providing a transformer-less oscillator, comprising a power source and a resonant circuit (330; 420; 720), the resonant circuit (330; 420; 720) comprising a resonant inductor (422; 722) coupled in series with a resonant capacitor (424; 724), directly coupling the resonant circuit (330; 420; 720) between the power source (320; 410; 710) and an ozone generating unit, wherein the ozone generating unit is coupled in parallel with a resonant capacitor (424, 724) of the resonant circuit (330; 420; 720); providing a first AC voltage from the power source (320; 410; 710) to the resonant circuit (330; 420; 720); and providing a second AC voltage from the resonant circuit (330; 420; 720) to the ozone generating unit, the second AC voltage being greater than the first AC voltage, characterized in that the resonant circuit (330; 420; 720) has a q-factor greater than or equal to 10.
Antenna unit comprising - an antenna part comprising a plurality of individual antennas, - a feed part for feeding at least one cable comprising a plurality of cable portions (3.50, 3.60) to the antenna part in a protected manner, characterised in that - the antenna part is detachably fastened to the feed part by means of a flange block, but in a pressure-tight, i.e. gas-tight, manner, also under a vacuum, relative to the surroundings around the parts (50, 60, 70) of the antenna unit, - the cable portion (3.60) of the feed part is fastened to the cable portion (3.50) of the antenna part so as to be easily detachable by means of a cable coupler. - an antenna part comprising a plurality of individual antennas, - a feed part for feeding at least one cable comprising a plurality of cable portions (3.50, 3.60) to the antenna part in a protected manner, - the antenna part is detachably fastened to the feed part by means of a flange block, but in a pressure-tight, i.e. gas-tight, manner, also under a vacuum, relative to the surroundings around the parts (50, 60, 70) of the antenna unit, - the cable portion (3.60) of the feed part is fastened to the cable portion (3.50) of the antenna part so as to be easily detachable by means of a cable coupler.
A light source for myopia prevention article, comprising a light emitter to emit light having an emission spectrum continuing from a first wavelength of not less than 360 nm nor more than 400 nm to a second wavelength of more than 400 nm, wherein the emission spectrum has a ratio a/b of an integrated value a of emission intensity of the light in a wavelength region of 300 nm to 400 nm to an integrated value b of emission intensity of the light in a wavelength region of 400 nm to 800 nm, the ratio being more than 0.1 and less than 0.5, characterized in that the light has a color temperature of not less than 2600 K nor more than 7000 K, and satisfies ∫ B λ V λ dλ = ∫ P λ V λ dλ where P(λ) represents an emission spectrum of the light, B(λ) represents a black body radiation spectrum indicating the same color temperature as a color temperature of the light, and V(λ) represents a spectrum of spectral luminous efficiency, and B λ ′ ≤ P λ ′ where P(λ') represents a maximum value of emission intensity of the light in a wavelength region of not less than 300 nm nor more than 400 nm and B(λ') represents blackbody radiation intensity at a wavelength at which the emission intensity of the light is the maximum value.
Cleaning device having a cleaning body, adapted for a device for crimping a crimp termination onto a cable end, comprising an anvil as well as a crimp indentor which is located on a stand of the device and which has an opening with flanks (6, 7) open in a V shape in the direction of the anvil and is displaceable towards the anvil from an inoperative position arranged above the anvil in order to effect crimping of a crimp termination onto the cable end, wherein the cleaning body for cleaning the flank surfaces can be brought into engagement with the flanks (6, 7) during a cleaning operation and moved back and forth by a transport carriage and set in rotation by a motor.
A method of making a fluid-filled chamber, the method comprising: forming an outer barrier having an upper portion, an opposite lower portion, and a peripheral edge, bonding the upper portion and lower portion together in a first bonded region and a second bonded region, the first bonded region and the second bonded region being spaced inward from the peripheral edge and having a convex shape; and locating a tensile member having a first aperture formed therethrough and a first tensile indented area formed into a perimeter thereof within the outer barrier, the first bonded region being completely surrounded by the tensile member within the first aperture and extending into the first aperture and the second bonded region extending into the first tensile indented area and including a first portion surrounded by the tensile member within the first tensile indented area and a second portion (i) opposing the peripheral edge and (ii) being spaced apart from the peripheral edge by a fluid of the fluid-filled chamber. forming an outer barrier having an upper portion, an opposite lower portion, and a peripheral edge, bonding the upper portion and lower portion together in a first bonded region and a second bonded region, the first bonded region and the second bonded region being spaced inward from the peripheral edge and having a convex shape; and locating a tensile member having a first aperture formed therethrough and a first tensile indented area formed into a perimeter thereof within the outer barrier, the first bonded region being completely surrounded by the tensile member within the first aperture and extending into the first aperture and the second bonded region extending into the first tensile indented area and including a first portion surrounded by the tensile member within the first tensile indented area and a second portion (i) opposing the peripheral edge and (ii) being spaced apart from the peripheral edge by a fluid of the fluid-filled chamber.
User equipment, comprising: a transceiver; a global navigation satellite systems (GNSS) receiver; and processing circuitry configured to receive an indication to transmit a signal using the transceiver, receive a location via the GNSS receiver, receive a time of day and a date, selectively mitigate interference on signals received by the GNSS receiver resulting from transmitting the signal using the transceiver based on the location, and the time of day and the date, and cause the transceiver to transmit the signal based on selectively mitigating the interference. a transceiver; a global navigation satellite systems (GNSS) receiver; and processing circuitry configured to receive an indication to transmit a signal using the transceiver, receive a location via the GNSS receiver, receive a time of day and a date, selectively mitigate interference on signals received by the GNSS receiver resulting from transmitting the signal using the transceiver based on the location, and the time of day and the date, and cause the transceiver to transmit the signal based on selectively mitigating the interference. receive an indication to transmit a signal using the transceiver, receive a location via the GNSS receiver, receive a time of day and a date, selectively mitigate interference on signals received by the GNSS receiver resulting from transmitting the signal using the transceiver based on the location, and the time of day and the date, and cause the transceiver to transmit the signal based on selectively mitigating the interference.
Electrical installation switching device having a switching mechanism with a latching point, having a contact lever that is connected to a switching knob by means of a tongue and a coupling element, wherein, when the switching knob is pivoted in the switch-on direction, the contact lever is moved to the switch-on position by means of the coupling element and the tongue when the latching point is latched, wherein a means is provided for temporarily holding firm the movable contact lever during the switch-on process, characterized in that between the switching knob and the means an operative means of connection is provided so that when the switching knob is moved further, the means is brought into a release position in which the contact lever is released, so that the movable contact piece that is attached to the contact lever strikes the stationary contact piece suddenly.
Window sill mounting trowel for installing window sills under a window frame, comprising: - a spacer element, wherein the spacer element has an upper side suitable for contact with an underside of the window frame, - a handle element, and - a clamping element, wherein the clamping element is connected to the handle element, and wherein the spacer element is provided with a recess (1.1) by which means the spacer element has lateral sides with different heights for the mounting of different thicknesses of window sills, and is mounted on the clamping element, and wherein the clamping element is arranged to be slightly protruding in relation to spacer element, and wherein the clamping element and the spacer element are arranged such that a mounting bracket can be inserted between the clamping element and spacer element. - a spacer element, wherein the spacer element has an upper side suitable for contact with an underside of the window frame, - a handle element, and - a clamping element, wherein the clamping element is connected to the handle element, and wherein the spacer element is provided with a recess (1.1) by which means the spacer element has lateral sides with different heights for the mounting of different thicknesses of window sills, and is mounted on the clamping element, and wherein the clamping element is arranged to be slightly protruding in relation to spacer element, and wherein the clamping element and the spacer element are arranged such that a mounting bracket can be inserted between the clamping element and spacer element.
A method of determining an estimate of a total capacitance of one or more capacitive elements (230, 320) connected to an output of a switched mode power supply, comprising: generating a voltage control signal to cause an output voltage controller to sweep a voltage ( Vout) at the output of the switched mode power supply from an initial voltage value to a final voltage value; receiving sample values of a current at the output measured by a current sampler during the sweep of the output voltage, the received sample values having been obtained by the current sampler only before or only after the output voltage has passed a threshold value ( Vstart, Vstop) different from the initial and final values; and calculating an integrated current value representing the estimate of the total capacitance using the received sample values, the threshold value being such that an error in the estimate of the total capacitance is smaller than an error in a second estimate of the total capacitance of the one or more capacitive elements (230, 320) connected to the output of the switched mode power supply, obtained when using received sample values of the current at the output, that have been measured by the current sampler during the full duration of the sweep of the output voltage, to calculate a second integrated current value representing the second estimate of the total capacitance. generating a voltage control signal to cause an output voltage controller to sweep a voltage ( Vout) at the output of the switched mode power supply from an initial voltage value to a final voltage value; receiving sample values of a current at the output measured by a current sampler during the sweep of the output voltage, the received sample values having been obtained by the current sampler only before or only after the output voltage has passed a threshold value ( Vstart, Vstop) different from the initial and final values; and calculating an integrated current value representing the estimate of the total capacitance using the received sample values, the threshold value being such that an error in the estimate of the total capacitance is smaller than an error in a second estimate of the total capacitance of the one or more capacitive elements (230, 320) connected to the output of the switched mode power supply, obtained when using received sample values of the current at the output, that have been measured by the current sampler during the full duration of the sweep of the output voltage, to calculate a second integrated current value representing the second estimate of the total capacitance.
A method for wireless communication by an access point, AP, comprising: establishing one or more wireless communication links with a station, STA, including a first wireless communication link; determining that the STA is capable of multiple simultaneous wireless communication links including the first wireless communication link; receiving, via the first wireless communication link, a first frame including a first address field that includes a first link media access control, MAC, address, the first link MAC address being associated with the STA; characterized by: determining that the STA is associated with a first network MAC address based on the first link MAC address and the determination that the STA is capable of multiple simultaneous wireless communication links; removing the first link MAC address from the first address field of the first frame; inserting the first network MAC address of the STA in a second address field of the first frame; and transmitting the first frame with the first network MAC address in the second address field to a first local area network, LAN, device. establishing one or more wireless communication links with a station, STA, including a first wireless communication link; determining that the STA is capable of multiple simultaneous wireless communication links including the first wireless communication link; receiving, via the first wireless communication link, a first frame including a first address field that includes a first link media access control, MAC, address, the first link MAC address being associated with the STA; characterized by: determining that the STA is associated with a first network MAC address based on the first link MAC address and the determination that the STA is capable of multiple simultaneous wireless communication links; removing the first link MAC address from the first address field of the first frame; inserting the first network MAC address of the STA in a second address field of the first frame; and transmitting the first frame with the first network MAC address in the second address field to a first local area network, LAN, device.