mhurhangee/patent-ind-claim-en huggingface dataset:
An orthogonal frequency division multiple access, OFDMA, uplink hybrid transmission method, comprising: sending (S401), by an access point, AP, , a trigger frame, wherein the trigger frame is used to trigger a first station, STA, supporting a first standard and a second STA supporting a second standard to perform OFDMA uplink transmission; and receiving (S406), by the AP , a trigger-based physical layer protocol data unit TB PPDU, wherein a bandwidth of the TB PPDU is a second bandwidth, and the TB PPDU comprises first uplink data sent by the first STA in response to the trigger frame and second uplink data sent by the second STA in response to the trigger frame, wherein the first STA supports a first bandwidth, the second STA supports the second bandwidth, and the second bandwidth is greater than the first bandwidth, and the trigger frame comprises a common information field, the common information field comprises an uplink bandwidth field and a first reserved bit, characterized in that the uplink bandwidth field and the first reserved bit are jointly used for determining, by the second STA , the second bandwidth, and the first bandwidth is determined, by the first STA , based on the uplink bandwidth field. sending (S401), by an access point, AP, , a trigger frame, wherein the trigger frame is used to trigger a first station, STA, supporting a first standard and a second STA supporting a second standard to perform OFDMA uplink transmission; and receiving (S406), by the AP , a trigger-based physical layer protocol data unit TB PPDU, wherein a bandwidth of the TB PPDU is a second bandwidth, and the TB PPDU comprises first uplink data sent by the first STA in response to the trigger frame and second uplink data sent by the second STA in response to the trigger frame, wherein the first STA supports a first bandwidth, the second STA supports the second bandwidth, and the second bandwidth is greater than the first bandwidth, and the trigger frame comprises a common information field, the common information field comprises an uplink bandwidth field and a first reserved bit, characterized in that the uplink bandwidth field and the first reserved bit are jointly used for determining, by the second STA , the second bandwidth, and the first bandwidth is determined, by the first STA , based on the uplink bandwidth field.
Roof-greening cassette, at least predominantly having walls and bases made of (porous) material having open pores, characterized by the following features: a) zones of different density, wherein the bases have a lower density than the rest of the walls, b) the density of the porous material in the region of the walls is 150 to 190 kg/m 3 , and in the region of a base wall is 120 to 160 kg/m 3 , c) the porous material has a water absorption of 15 to 30 litres/m 2 in the case of a material thickness of 30 mm, d) the porous material has a water permeability normal to the plane of 8 to 16 litres/(m 2 s), in the case of a water column of 200 mm and a material thickness of 30 mm. a) zones of different density, wherein the bases have a lower density than the rest of the walls, b) the density of the porous material in the region of the walls is 150 to 190 kg/m 3 , and in the region of a base wall is 120 to 160 kg/m 3 , c) the porous material has a water absorption of 15 to 30 litres/m 2 in the case of a material thickness of 30 mm, d) the porous material has a water permeability normal to the plane of 8 to 16 litres/(m 2 s), in the case of a water column of 200 mm and a material thickness of 30 mm.
An infrared light source , comprising: - an emitting element , extending as a radial plane (P XY ), about a center of the emitting element (11 c ), the emitting element being configured to heat up, the heating leading to an emission of infrared light; - a cavity , in which the emitting element lies, the cavity being bounded by a cover , placed facing the emitting element , the cover having an internal face , placed facing the emitting element , and an external face , defining an interface between the cover and a medium outside the light source; - the cover occupying, parallel to a transverse axis (Z), perpendicular to the radial plane (P XY ), a thickness (e), between the internal face and the external face ; - the external face comprising • a planar central portion (16 1 ), extending about a center (16 c ) of the external face, the center of the external face being aligned with the center of the emitting element (11 c ), along the transverse axis (Z); the light source being characterized in that the external face comprises : • at least one peripheral portion (16 2 , 16 2,1 , 16 2,2 ), adjacent to the central portion, the peripheral portion being inclined with respect to the central portion by an angle of inclination (θ); - such that, in the peripheral portion, the thickness (e) of the cover decreases as a function of a distance from the central portion (16 1 ). - an emitting element , extending as a radial plane (P XY ), about a center of the emitting element (11 c ), the emitting element being configured to heat up, the heating leading to an emission of infrared light; - a cavity , in which the emitting element lies, the cavity being bounded by a cover , placed facing the emitting element , the cover having an internal face , placed facing the emitting element , and an external face , defining an interface between the cover and a medium outside the light source; - the cover occupying, parallel to a transverse axis (Z), perpendicular to the radial plane (P XY ), a thickness (e), between the internal face and the external face ; - the external face comprising • a planar central portion (16 1 ), extending about a center (16 c ) of the external face, the center of the external face being aligned with the center of the emitting element (11 c ), along the transverse axis (Z); the light source being characterized in that the external face comprises : • at least one peripheral portion (16 2 , 16 2,1 , 16 2,2 ), adjacent to the central portion, the peripheral portion being inclined with respect to the central portion by an angle of inclination (θ); • a planar central portion (16 1 ), extending about a center (16 c ) of the external face, the center of the external face being aligned with the center of the emitting element (11 c ), along the transverse axis (Z); • at least one peripheral portion (16 2 , 16 2,1 , 16 2,2 ), adjacent to the central portion, the peripheral portion being inclined with respect to the central portion by an angle of inclination (θ); - such that, in the peripheral portion, the thickness (e) of the cover decreases as a function of a distance from the central portion (16 1 ).
A method of wireless communication, comprising: receiving , by a first user equipment, UE, from a base station, BS, a multicast feedback configuration indicating: a first resource configuration for a negative-acknowledgement, NACK, feedback mode; and a second resource configuration for an acknowledgement/negative-acknowledgement, ACK/NACK, feedback mode, wherein the multicast feedback configuration indicates a periodicity for switching from the one of the NACK feedback mode or the ACK/NACK feedback mode to the other of the NACK feedback mode or the ACK/NACK feedback mode; receiving , by the first UE from the BS , a first multicast communication; transmitting , by the first UE to the BS , a NACK feedback for the first multicast communication based on the first resource configuration; receiving , by the first UE from the BS , a second multicast communication; and transmitting , by the first UE to the BS , an ACK feedback or a NACK feedback for the second multicast communication based on the second resource configuration. receiving , by a first user equipment, UE, from a base station, BS, a multicast feedback configuration indicating: a first resource configuration for a negative-acknowledgement, NACK, feedback mode; and a second resource configuration for an acknowledgement/negative-acknowledgement, ACK/NACK, feedback mode, wherein the multicast feedback configuration indicates a periodicity for switching from the one of the NACK feedback mode or the ACK/NACK feedback mode to the other of the NACK feedback mode or the ACK/NACK feedback mode; a first resource configuration for a negative-acknowledgement, NACK, feedback mode; and a second resource configuration for an acknowledgement/negative-acknowledgement, ACK/NACK, feedback mode, wherein the multicast feedback configuration indicates a periodicity for switching from the one of the NACK feedback mode or the ACK/NACK feedback mode to the other of the NACK feedback mode or the ACK/NACK feedback mode; receiving , by the first UE from the BS , a first multicast communication; transmitting , by the first UE to the BS , a NACK feedback for the first multicast communication based on the first resource configuration; receiving , by the first UE from the BS , a second multicast communication; and transmitting , by the first UE to the BS , an ACK feedback or a NACK feedback for the second multicast communication based on the second resource configuration.
Theft protection module for an electric machine tool , having a position determination unit for determining a geographical position of the theft protection module and having at least one first data interface for transmitting data, in particular position data, to an external device , wherein the theft protection module is mounted or able to be mounted on a cable connected fixedly to the electric machine tool , characterized in that the theft protection module has a modular structure having at least one base module comprising the position determination unit and the first data interface , wherein further modules of the theft protection module for sensing, data transmission, data processing, energy supply, operating or state display purposes and to be secured to the cable of the electric machine tool are able to be plugged or locked individually or in combination and able to be used on the theft protection module in a manner secured against authorized disconnection.
Audio encoder comprising a background noise estimator configured to determine a parametric background noise estimate based on a spectral decomposition representation of an input audio signal so that the parametric background noise estimate spectrally describes a spectral envelope of a background noise of the input audio signal; an encoder for encoding the input audio signal into a data stream during the active phase; and a detector configured to detect an entrance of an inactive phase following the active phase based on the input signal, wherein the audio encoder is configured to encode into the data stream the parametric background noise estimate in the inactive phase, characterised in that the background noise estimator is configured to identify local minima in the spectral decomposition representation of the input audio signal and to estimate the spectral envelope of the background noise of the input audio signal using interpolation between the identified local minima as supporting points. a background noise estimator configured to determine a parametric background noise estimate based on a spectral decomposition representation of an input audio signal so that the parametric background noise estimate spectrally describes a spectral envelope of a background noise of the input audio signal; an encoder for encoding the input audio signal into a data stream during the active phase; and a detector configured to detect an entrance of an inactive phase following the active phase based on the input signal, wherein the audio encoder is configured to encode into the data stream the parametric background noise estimate in the inactive phase, characterised in that the background noise estimator is configured to identify local minima in the spectral decomposition representation of the input audio signal and to estimate the spectral envelope of the background noise of the input audio signal using interpolation between the identified local minima as supporting points.
An apparatus comprising circuitry configured to: receive a periodic series of voltage signals based on laser pulses detected by a photodiode; stretch the voltage signals over time; obtain sampled voltages from the stretched voltage signals using periodic control signals; shift the timing of the periodic control signals by a time step; compare the sampled voltages for respective timings of the control signals; and generate a histogram representing the number of times a peak pulse was detected for a particular timing; determine, from the histogram, which timing has the most pulses; select an optimal control signal timing based on the comparison which timing has the most pulses. receive a periodic series of voltage signals based on laser pulses detected by a photodiode; stretch the voltage signals over time; obtain sampled voltages from the stretched voltage signals using periodic control signals; shift the timing of the periodic control signals by a time step; compare the sampled voltages for respective timings of the control signals; and generate a histogram representing the number of times a peak pulse was detected for a particular timing; determine, from the histogram, which timing has the most pulses; select an optimal control signal timing based on the comparison which timing has the most pulses.
A method for codebook processing, applied to a terminal device, characterized by the method comprising: determining non-quantized weighting coefficients Ŵ 2 for codebook calculation based on a first number and a second number in a Release 16 New Radio, NR, type II codebook W = W 1 W ^ 2 W ƒ H , wherein W 1 indicates 2L spatial beams, W ƒ H indicates M discrete fourier transform, DFT, basis vectors, the first number is L and a value of L is half of a number of spatial beams, the second number is M and a value of M is a number of DFT basis vectors, L and M are both integers, and a number of the non-quantized weighting coefficients is 2LM; performing quantization processing on the non-quantized weighting coefficients to obtain quantized weighting coefficients, the quantized weighting coefficients being coded values for codebook calculation determined based on a preset amplitude quantization level table; selecting K quantized weighting coefficients with non-zero amplitude values, K being an integer greater than or equal to 1; and transmitting the K selected quantized weighting coefficients to a network device through channel state information, CSI, wherein the CSI comprises a first part and a second part, K is added into the first part, K coded values and positions of the K coded values in 2LM are added into the second part. determining non-quantized weighting coefficients Ŵ 2 for codebook calculation based on a first number and a second number in a Release 16 New Radio, NR, type II codebook W = W 1 W ^ 2 W ƒ H , wherein W 1 indicates 2L spatial beams, W ƒ H indicates M discrete fourier transform, DFT, basis vectors, the first number is L and a value of L is half of a number of spatial beams, the second number is M and a value of M is a number of DFT basis vectors, L and M are both integers, and a number of the non-quantized weighting coefficients is 2LM; performing quantization processing on the non-quantized weighting coefficients to obtain quantized weighting coefficients, the quantized weighting coefficients being coded values for codebook calculation determined based on a preset amplitude quantization level table; selecting K quantized weighting coefficients with non-zero amplitude values, K being an integer greater than or equal to 1; and transmitting the K selected quantized weighting coefficients to a network device through channel state information, CSI, wherein the CSI comprises a first part and a second part, K is added into the first part, K coded values and positions of the K coded values in 2LM are added into the second part.
A hydrogen peroxide solution manufacturing method comprising: generating plasma by performing electrical discharge into an inert gas under an atmosphere purged using inert gas, and ejecting the generated plasma into water characterized in that: for the generating of the plasma, the inert gas includes oxygen. generating plasma by performing electrical discharge into an inert gas under an atmosphere purged using inert gas, and ejecting the generated plasma into water
An assembly , comprising: at least one output device comprising at least left and right speakers ; at least one cord connecting the left and right speakers to a plug , the plug comprising: a) a conductive distal tip connector for receiving audio signals for play on a first one of the left and right speakers; b) proximal to the conductive distal tip connector, a first conductive ring for receiving audio signals for play on a second one of the left and right speakers, the first conductive ring being a continuous cylindrical ring; and c) proximal to the first conductive ring, first and second arcuate conductive segments having respective first and second ends , the first end of the first arcuate conductive segment facing the first end of the second conductive segment and being spaced therefrom, the second end of the first arcuate conductive segment facing the second end of the second conductive segment and being spaced therefrom; and d) an extension port device electrically connectable to the first and second conductive segments and configured for electrically shorting the first and second conductive segments. at least one output device comprising at least left and right speakers ; at least one cord connecting the left and right speakers to a plug , the plug comprising: a) a conductive distal tip connector for receiving audio signals for play on a first one of the left and right speakers; b) proximal to the conductive distal tip connector, a first conductive ring for receiving audio signals for play on a second one of the left and right speakers, the first conductive ring being a continuous cylindrical ring; and c) proximal to the first conductive ring, first and second arcuate conductive segments having respective first and second ends , the first end of the first arcuate conductive segment facing the first end of the second conductive segment and being spaced therefrom, the second end of the first arcuate conductive segment facing the second end of the second conductive segment and being spaced therefrom; and d) an extension port device electrically connectable to the first and second conductive segments and configured for electrically shorting the first and second conductive segments. a) a conductive distal tip connector for receiving audio signals for play on a first one of the left and right speakers; b) proximal to the conductive distal tip connector, a first conductive ring for receiving audio signals for play on a second one of the left and right speakers, the first conductive ring being a continuous cylindrical ring; and c) proximal to the first conductive ring, first and second arcuate conductive segments having respective first and second ends , the first end of the first arcuate conductive segment facing the first end of the second conductive segment and being spaced therefrom, the second end of the first arcuate conductive segment facing the second end of the second conductive segment and being spaced therefrom; and d) an extension port device electrically connectable to the first and second conductive segments and configured for electrically shorting the first and second conductive segments.
A composition for use in reducing inflammation in an infant, toddler, or child, the composition comprising lacto-N- neotetraose in a concentration of from 001 mg/mL to 0.2 mg/mL.
A device for chipping wood, comprising a plurality of rotor discs disposed on a rotor axle of a rotor, wherein at least one knife holder with a knife detachably fixed thereto is provided on each of the rotor discs , and wherein the rotor discs are disposed on the rotor axle in a spaced-apart relationship via interposed spacers and are fastened to one another, characterized in that a detachably fixed spacer is each provided between two rotor discs detachably fixed to the rotor axle , that each of the spacers is designed as a substantially tube-shaped element comprising fastening flanges disposed in its two end regions and extending over a tube diameter, and that at least the rotor discs are fixed to the rotor axle by clamping elements .
A composition for use in a method of effectively treating sexual dysfunction in a subject, preferably a human subject, the composition comprising: an ionic salt present at a concentration of at least about 5% by weight of the composition; xanthan gum; propylene glycol; a polysorbate surfactant; sildenafil and/or a salt thereof; and, a nitric oxide donor comprising L-arginine, an L-arginine salt, and/or L-arginine HCl, wherein the method comprises topically applying the composition to the genitalia. an ionic salt present at a concentration of at least about 5% by weight of the composition; xanthan gum; propylene glycol; a polysorbate surfactant; sildenafil and/or a salt thereof; and, a nitric oxide donor comprising L-arginine, an L-arginine salt, and/or L-arginine HCl,
A door entrance system for regulating the access between a first area and a second area , comprising - a first opening configured to be connected to the first area , - a second opening configured to be connected to the second area and - a revolving door comprising two or more wings , wherein - the revolving door is positioned between the first and second opening and configured to rotate the two or more wings to control access between the first and second area through the first and second opening , and - the door entrance system further comprise a first door leaf moveably between a first open position (O1) and a second open position (O2) to regulate a size (W) of the first opening , the door entrance system further comprising a control unit connected to the first door leaf and to a first air sensor configured to measure parameters of the air (A) in the first area , characterized in that the control unit is configured to move the first door leaf between the first and second open position (O1, O2) to regulate the size (W) of the first opening at least based on input from the first air sensor , wherein the control unit is connected to a second air sensor configured to measure parameters of the air (A) in the second area and is configured to move the first door leaf between the first and second open position (O1, O2) to regulate the size (W) of the first opening at least based on input from the first air sensor and/or the second air sensor . - a first opening configured to be connected to the first area , - a second opening configured to be connected to the second area and - a revolving door comprising two or more wings , - the revolving door is positioned between the first and second opening and configured to rotate the two or more wings to control access between the first and second area through the first and second opening , and - the door entrance system further comprise a first door leaf moveably between a first open position (O1) and a second open position (O2) to regulate a size (W) of the first opening ,