mhurhangee/patent-ind-claim-en huggingface dataset:
A channel access method, applied to a wireless local area network, and comprising: a) generating, by a station, a backoff counter value, wherein the backoff counter value is randomly selected from a range from zero to CWo, CWo is a contention window for orthogonal frequency division multiple access, OFDMA, subchannel contention, and CWo is an integer greater than 0; b) receiving, by the station, a first trigger frame from an access point, the first trigger frame indicates a quantity of subchannels for random access, and the quantity of subchannels for random access is an integer greater than 0; c) if the backoff counter value is not greater than the quantity of subchannels for random access, randomly selecting, by the station, one subchannel from the subchannels for random access to send an uplink frame; and d) if the backoff counter value is greater than the quantity of subchannels for random access, decreasing, by the station, the backoff counter value by the quantity of subchannels for random access to obtain a new backoff counter value and performing again the step b. a) generating, by a station, a backoff counter value, wherein the backoff counter value is randomly selected from a range from zero to CWo, CWo is a contention window for orthogonal frequency division multiple access, OFDMA, subchannel contention, and CWo is an integer greater than 0; b) receiving, by the station, a first trigger frame from an access point, the first trigger frame indicates a quantity of subchannels for random access, and the quantity of subchannels for random access is an integer greater than 0; c) if the backoff counter value is not greater than the quantity of subchannels for random access, randomly selecting, by the station, one subchannel from the subchannels for random access to send an uplink frame; and d) if the backoff counter value is greater than the quantity of subchannels for random access, decreasing, by the station,
Method for controlling a combustion of fuel in a combustion boiler , wherein the combustion boiler includes a combustion air supply , at least one material discharge opening and at least one apparatus opening , wherein the apparatus opening is an access through a side wall and/or a ceiling wall to the combustion boiler , the method comprising at least the following steps: a) determining a desired combustion air quantity for the combustion of the fuel in the combustion boiler , b) determining an available combustion air quantity for the combustion of the fuel in the combustion boiler , c) controlling at least one combustion air inflow through the at least one material discharge opening and/or the at least one apparatus opening of the combustion boiler in order to at least partially match the available combustion air quantity in the combustion boiler to the desired combustion air quantity, wherein apparatuses are temporarily introduced into the combustion boiler and/or downstream areas through the at least one apparatus opening , d) adjusting at least one of the following combustion air inflows depending on step c): - combustion air inflow via the combustion air supply , - combustion air inflow via the at least one material discharge opening , - combustion air inflow via the at least one apparatus opening . a) determining a desired combustion air quantity for the combustion of the fuel in the combustion boiler , b) determining an available combustion air quantity for the combustion of the fuel in the combustion boiler , c) controlling at least one combustion air inflow through the at least one material discharge opening and/or the at least one apparatus opening of the combustion boiler in order to at least partially match the available combustion air quantity in the combustion boiler to the desired combustion air quantity, wherein apparatuses are temporarily introduced into the combustion boiler and/or downstream areas through the at least one apparatus opening , d) adjusting at least one of the following combustion air inflows depending on step c): - combustion air inflow via the combustion air supply , - combustion air inflow via the at least one material discharge opening , - combustion air inflow via the at least one apparatus opening . - combustion air inflow via the combustion air supply , - combustion air inflow via the at least one material discharge opening , - combustion air inflow via the at least one apparatus opening .
An inorganic substance powder-containing thermoplastic resin composition comprising: a thermoplastic resin and inorganic substance powder in a mass ratio of 50:50 to 10:90, wherein the inorganic substance powder is calcium carbonate particles, the calcium carbonate particles comprise at least two groups of particles having different average particle diameters, and a calcium carbonate particle group having an average particle diameter of 0.7 μm or more and less than 2.2 μm and a calcium carbonate particle group having an average particle diameter of 2.2 μm or more and less than 6.0 μm are contained in a mass ratio of 1:1 to 5:1 as the at least two groups of particles having different average particle diameters, wherein the calcium carbonate is heavy calcium carbonate. a thermoplastic resin and inorganic substance powder in a mass ratio of 50:50 to 10:90, wherein the inorganic substance powder is calcium carbonate particles, the calcium carbonate particles comprise at least two groups of particles having different average particle diameters, and a calcium carbonate particle group having an average particle diameter of 0.7 μm or more and less than 2.2 μm and a calcium carbonate particle group having an average particle diameter of 2.2 μm or more and less than 6.0 μm are contained in a mass ratio of 1:1 to 5:1 as the at least two groups of particles having different average particle diameters, wherein the calcium carbonate is heavy calcium carbonate.
An apparatus, comprising: a bit , which bit is rotatable about an axis of rotation; a bit identification assembly configured to attach to the bit , the bit being configured to removably attach to a tool that is configured to rotate the bit about the axis of rotation, the bit identification assembly comprising: an electronic identification device capable of emitting an identification signal; characterized in that : the bit identification assembly comprises a core comprising a bit receptacle configured to receive the bit; and wherein the electronic identification device is located in a recess formed on a radially outer surface of the core. a bit , which bit is rotatable about an axis of rotation; a bit identification assembly configured to attach to the bit , the bit being configured to removably attach to a tool that is configured to rotate the bit about the axis of rotation, the bit identification assembly comprising: an electronic identification device capable of emitting an identification signal; characterized in that : the bit identification assembly comprises a core comprising a bit receptacle configured to receive the bit; and wherein the electronic identification device is located in a recess formed on a radially outer surface of the core.
A stator for an electric machine, said stator comprising a plurality of radially distributed metal sheet winding turns extending in an axial and a circumferential direction of the stator, for housing a rotor component therein; wherein said metal sheet winding turns are radially spaced apart from each other, such that cooling passages are provided between the metal sheet winding turns , characterized in that the radially distributed metal sheet winding turns are arranged in a respective continuous S-shaped configuration in the circumferential direction of the stator , such that the stator is alternatingly provided with portions of metal sheets and openings when following the circumferential direction of the stator , the stator further comprising at least one metal block , said metal block having a first portion positioned in one of the openings of the radially distributed metal sheet winding turns , and a ring portion enclosing said plurality of radially distributed metal sheet winding turns , wherein said ring portion further comprises circumferentially distributed recesses in the radial and axial direction of the ring portion for housing a second portion of said at least one metal block .
A hollow profile for a WIM sensor ; which hollow profile is elongated along a longitudinal direction (Y); said hollow profile comprising a plate-shaped force introduction element ; said hollow profile comprising an anchoring element ; wherein a tubular element is arranged between said force introduction element and said anchoring element ; which tubular element encloses a first cavity ; which anchoring element and which tubular element and which force introduction element are formed integrally with each other; said tubular element being integrally connected to the force introduction element and to the anchoring element ; characterized in that the anchoring element encloses at least one second cavity .
Method for energy management in a hybrid motor vehicle comprising a power plant that includes a heat engine and an electric motor suitable for being coupled with wheels of the vehicle via a transmission device according to at least two transmission modes (Hyb1, ZEV1), one of which is currently in use, wherein a) a quantity of energy (H) is determined which represents the energy consumption of the power plant, and b) one of said transmission modes (Hyb1, ZEV1) is selected according to this quantity of energy (H) by executing the following steps: b1) a parameter (CHG) is determined which represents an imminent change in torque demand at the wheels, b2) a correction factor (COR) of said quantity of energy (H) is determined according to said parameter (CHG) which represents an imminent change in torque demand, b3) a corrected quantity of energy (HCOR) is determined which is equal to the sum of said quantity of energy (H) plus said correction factor (COR), b4) the transmission mode (Hyb1, ZEV1) is selected in order to minimize said corrected quantity of energy (HCOR), characterized in that , in the course of step b2), said correction factor (COR) is likewise determined according to the transmission mode currently in use. a) a quantity of energy (H) is determined which represents the energy consumption of the power plant, and b) one of said transmission modes (Hyb1, ZEV1) is selected according to this quantity of energy (H) by executing the following steps: b1) a parameter (CHG) is determined which represents an imminent change in torque demand at the wheels, b2) a correction factor (COR) of said quantity of energy (H) is determined according to said parameter (CHG) which represents an imminent change in torque demand, b3) a corrected quantity of energy (HCOR) is determined which is equal to the sum of said quantity of energy (H) plus said correction factor (COR), b4) the transmission mode (Hyb1, ZEV1) is selected in order to minimize said corrected quantity of energy (HCOR), characterized in that , in the course of step b2), said correction factor (COR) is likewise determined according to the transmission mode currently in use. b1) a parameter (CHG) is determined which represents an imminent change in torque demand at the wheels, b2) a correction factor (COR) of said quantity of energy (H) is determined according to said parameter (CHG) which represents an imminent change in torque demand, b3) a corrected quantity of energy (HCOR) is determined which is equal to the sum of said quantity of energy (H) plus said correction factor (COR), b4) the transmission mode (Hyb1, ZEV1) is selected in order to minimize said corrected quantity of energy (HCOR),
A circuit comprising: a first inverter and a second inverter cross-coupled between a bit node and a bit bar node ; a save-restore circuit coupled to the bit node , the save-restore circuit including: a metal-ferroelectric-metal, MFM, device configured to store a logic value of the bit node when the circuit is in a sleep state and restore the logic value to the bit node when the circuit transitions from the sleep state to an active state, wherein the MFM device is coupled between an internal node (bitnv) and a plate line , wherein the plate line is to receive a control signal to control the MFM device to perform the store and the restore; a capacitive load coupled between the internal node (bitnv) and ground; and a transmission gate coupled between the MFM device and the bit node , and configured to isolate the MFM device from the bit node when the circuit is in the active state, characterized in that the save-restore circuit further comprises a selector device coupled between the internal node (bitnv) and ground, and configured to initialize the internal node (bitnv) prior to the store and prior to the restore. a first inverter and a second inverter cross-coupled between a bit node and a bit bar node ; a save-restore circuit coupled to the bit node , the save-restore circuit including: a metal-ferroelectric-metal, MFM, device configured to store a logic value of the bit node when the circuit is in a sleep state and restore the logic value to the bit node when the circuit transitions from the sleep state to an active state, wherein the MFM device is coupled between an internal node (bitnv) and a plate line , wherein the plate line is to receive a control signal to control the MFM device to perform the store and the restore; a capacitive load coupled between the internal node (bitnv) and ground; and a transmission gate coupled between the MFM device and the bit node , and configured to isolate the MFM device from the bit node when the circuit is in the active state, a metal-ferroelectric-metal, MFM, device configured to store a logic value of the bit node when the circuit is in a sleep state and restore the logic value to the bit node when the circuit transitions from the sleep state to an active state, wherein the MFM device is coupled between an internal node (bitnv) and a plate line , wherein the plate line is to receive a control signal to control the MFM device to perform the store and the restore; a capacitive load coupled between the internal node (bitnv) and ground; and a transmission gate coupled between the MFM device and the bit node , and configured to isolate the MFM device from the bit node when the circuit is in the active state, characterized in that the save-restore circuit further comprises a selector device coupled between the internal node (bitnv) and ground, and configured to initialize the internal node (bitnv) prior to the store and prior to the restore.
Audio playback equipment comprising: · a housing having holes formed therein, and microphones positioned inside the housing, each microphone being in acoustic communication with the outside via a respective one of the holes; · a loudspeaker ; · emitter means arranged to emit a sound detection signal via the loudspeaker, the sound detection signal being a predetermined sound signal, the sound detection signal being a signal that is normally inaudible for a human being, a frequency of the sound detection signal lying within the operating range of the loudspeaker and of the microphones; · at least one processor component arranged: o to acquire audio detection signals produced by the microphones as a result of picking up the sound detection signal; o from the audio detection signals, to detect a run of maskings in which at least two distinct microphones are masked in succession; o to analyze the detected run of maskings so as to detect a command slide (14; 15) made by a user on the housing via at least two distinct microphones; and o to cause at least one predetermined action to take place as a result of detecting said command slide. · a housing having holes formed therein, and microphones positioned inside the housing, each microphone being in acoustic communication with the outside via a respective one of the holes; · a loudspeaker ; · emitter means arranged to emit a sound detection signal via the loudspeaker, the sound detection signal being a predetermined sound signal, the sound detection signal being a signal that is normally inaudible for a human being, a frequency of the sound detection signal lying within the operating range of the loudspeaker and of the microphones; · at least one processor component arranged: o to acquire audio detection signals produced by the microphones as a result of picking up the sound detection signal; o from the audio detection signals, to detect a run of maskings in which at least two distinct microphones are masked in succession; o to analyze the detected run of maskings so as to detect a command slide (14; 15) made by a user on the housing via at least two distinct microphones; and o to cause at least one predetermined action to take place as a result of detecting said command slide. o to acquire audio detection signals produced by the microphones as a result of picking up the sound detection signal; o from the audio detection signals, to detect a run of maskings in which at least two distinct microphones are masked in succession; o to analyze the detected run of maskings so as to detect a command slide (14; 15) made by a user on the housing via at least two distinct microphones; and o to cause at least one predetermined action to take place as a result of detecting said command slide.
Supporting device for supporting a façade panel on a support structure , the device comprising a façade panel , a support structure , an anchoring device , an adjusting element and a compression member , wherein the an adjusting element is secured to the façade panel by way of the anchoring device , wherein the compression member has a first end and a second end and is secured in the an adjusting element while being variably adjustable in the axial direction, wherein in the assembled state of the supporting device the first end of the compression member is oriented towards the façade panel and the second end of the compression member is in contact with the support structure , wherein the adjusting element is located outside the façade panel and the support structure , characterised in that in the assembled state of the supporting device the compression member exclusively transmits compression forces (F D ) between the façade panel and the support structure .
A system for collecting solar energy, comprising: an enclosure having an interior region, the enclosure further having: a support structure that includes a plurality of curved portions ; and a flexible film carried by and fixed relative to the curved portions , the film having an anticlastic shape between neighboring curved portions and positioned to transmit solar radiation into the interior region; a receiver positioned in the interior region, the receiver carrying a working fluid and suspended from the curved portions ; a solar concentrator positioned in the interior region to direct the solar radiation to the receiver to heat the working fluid. a support structure that includes a plurality of curved portions ; and a flexible film carried by and fixed relative to the curved portions , the film having an anticlastic shape between neighboring curved portions and positioned to transmit solar radiation into the interior region; a receiver positioned in the interior region, the receiver carrying a working fluid and suspended from the curved portions ; a solar concentrator positioned in the interior region to direct the solar radiation to the receiver to heat the working fluid.
A computer-implemented method comprising: accessing a set of epochs of magnetoencephalography (MEG) data of responses of a brain of a test patient to a plurality of auditory stimulus events; processing the set of epochs to identify a tri-peak subset of the epochs, each epoch in the subset comprising a first peak, a second peak, and a third peak; determining a plurality of parameter values of parameters by analyzing the individual epochs of the MEG data, at least one of the parameter values determined based on a count of epochs in the set having one or more of the first, second, and third peaks; and at least one of the parameter values determined based on amplitudes of one of first, second, and third peaks of at least some of the epochs in the tri-peak subset; inputting the plurality of parameter values into a model that is trained based on the parameters to determine whether the test patient is cognitively impaired; and providing the determination. accessing a set of epochs of magnetoencephalography (MEG) data of responses of a brain of a test patient to a plurality of auditory stimulus events; processing the set of epochs to identify a tri-peak subset of the epochs, each epoch in the subset comprising a first peak, a second peak, and a third peak; determining a plurality of parameter values of parameters by analyzing the individual epochs of the MEG data, at least one of the parameter values determined based on a count of epochs in the set having one or more of the first, second, and third peaks; and at least one of the parameter values determined based on amplitudes of one of first, second, and third peaks of at least some of the epochs in the tri-peak subset; at least one of the parameter values determined based on a count of epochs in the set having one or more of the first, second, and third peaks; and at least one of the parameter values determined based on amplitudes of one of first, second, and third peaks of at least some of the epochs in the tri-peak subset; inputting the plurality of parameter values into a model that is trained based on the parameters to determine whether the test patient is cognitively impaired; and providing the determination.