mhurhangee/patent-ind-claim-en huggingface dataset:
An article of footwear comprising: an upper defining a foot-receiving cavity ; a magnetic fastener including a male fastener portion fixed to a first portion of the upper and a female fastener portion fixed to a second portion of the upper , wherein the male fastener portion is configured to magnetically fasten to the female fastener portion to tighten the upper around the foot-receiving cavity ; wherein the female fastener portion defines a recess with an outer periphery (FP) that is asymmetric about a center axis (C) of the recess ; and wherein the male fastener portion fits into the recess when the male fastener portion is in a first orientation relative to the female fastener portion , and interferes with the female fastener portion when the male fastener portion is urged to rotate about the center axis of the recess away from the first orientation. an upper defining a foot-receiving cavity ; a magnetic fastener including a male fastener portion fixed to a first portion of the upper and a female fastener portion fixed to a second portion of the upper , wherein the male fastener portion is configured to magnetically fasten to the female fastener portion to tighten the upper around the foot-receiving cavity ; wherein the female fastener portion defines a recess with an outer periphery (FP) that is asymmetric about a center axis (C) of the recess ; and wherein the male fastener portion fits into the recess when the male fastener portion is in a first orientation relative to the female fastener portion , and interferes with the female fastener portion when the male fastener portion is urged to rotate about the center axis of the recess away from the first orientation.
A closed loop feedback control and diagnostics system for a transport climate control system that is powered by a high voltage three-phase AC power source , the closed loop feedback control and diagnostics system comprising: a plurality of compressor current sensors configured to monitor current drawn by an electrically powered compressor of the transport climate control system , wherein each of the plurality of compressor current sensors is configured to monitor current drawn by a single phase of the electrically powered compressor ; a controller configured to receive compressor current signals from each of the plurality of compressor current sensors ; characterized in comprising a plurality of source current sensors configured to monitor current received from the high voltage three-phase AC power source , wherein each of the plurality of source current sensors is configured to monitor current directed from a single phase of the high voltage three-phase AC power source ; and further characterized in that the controller is configured to receive source current signals from each of the plurality of source current sensors , and is configured to control operation of the transport climate control system based on the received source current signals and the received compressor current signals. a plurality of compressor current sensors configured to monitor current drawn by an electrically powered compressor of the transport climate control system , wherein each of the plurality of compressor current sensors is configured to monitor current drawn by a single phase of the electrically powered compressor ; a controller configured to receive compressor current signals from each of the plurality of compressor current sensors ; characterized in comprising a plurality of source current sensors configured to monitor current received from the high voltage three-phase AC power source , wherein each of the plurality of source current sensors is configured to monitor current directed from a single phase of the high voltage three-phase AC power source ; and further characterized in that the controller is configured to receive source current signals from each of the plurality of source current sensors , and is configured to control operation of the transport climate control system based on the received source current signals and the received compressor current signals.
A method performed by a base unit , the method comprising: transmitting a broadcast signal on an anchor carrier, wherein the anchor carrier is within a guard band associated with a Long-Term Evolution, LTE, carrier, and the broadcast signal is a narrowband master information block, NB-MIB, which includes bandwidth information of the LTE carrier selected from the group comprising 5MHz, 10MHz, 15MHz, and 20MHz; and transmitting a narrowband system information, NB-SIB1, on a non-anchor carrier, wherein the non-anchor carrier is within the guard band associated with the LTE carrier, wherein the broadcast signal indicates: a frequency offset between the anchor carrier and the LTE carrier, and a frequency offset between the non-anchor carrier and the anchor carrier, wherein the frequency offset between the non-anchor carrier and the anchor carrier indicates an absolute frequency offset value of the non-anchor carrier and the anchor carrier and whether the non-anchor carrier on which the system information is transmitted has a higher or lower frequency than the anchor carrier on which the NB-MIB is transmitted. transmitting a broadcast signal on an anchor carrier, wherein the anchor carrier is within a guard band associated with a Long-Term Evolution, LTE, carrier, and the broadcast signal is a narrowband master information block, NB-MIB, which includes bandwidth information of the LTE carrier selected from the group comprising 5MHz, 10MHz, 15MHz, and 20MHz; and transmitting a narrowband system information, NB-SIB1, on a non-anchor carrier, wherein the non-anchor carrier is within the guard band associated with the LTE carrier, wherein the broadcast signal indicates: a frequency offset between the anchor carrier and the LTE carrier, and a frequency offset between the non-anchor carrier and the anchor carrier, wherein the frequency offset between the non-anchor carrier and the anchor carrier indicates an absolute frequency offset value of the non-anchor carrier and the anchor carrier and whether the non-anchor carrier on which the system information is transmitted has a higher or lower frequency than the anchor carrier on which the NB-MIB is transmitted. a frequency offset between the anchor carrier and the LTE carrier, and a frequency offset between the non-anchor carrier and the anchor carrier, wherein the frequency offset between the non-anchor carrier and the anchor carrier indicates an absolute frequency offset value of the non-anchor carrier and the anchor carrier and whether the non-anchor carrier on which the system information is transmitted has a higher or lower frequency than the anchor carrier on which the NB-MIB is transmitted.
Apparatus for driving a fastening element into an substrate in a driving-in direction, having a heat source, having a fan for cooling the heat source, having a support structure , which supports the fan, and having a fan damping element, by means of which the fan is held on the support structure or on the heat source , characterized in that the fan has an enclosure, which is formed by the fan damping element .
A water-absorbent resin comprising a polymer of a water-soluble ethylenically unsaturated monomer, wherein when a cross-sectional image of the water-absorbent resin obtained by X-ray computed tomography is observed, a ratio (cavity area ratio) as calculated by Equation (I) of an area of cavity portions in the cross-sectional image is 5 to 8%, and a liquid flow rate index as calculated by Equation (II) when a physiological saline liquid column flow rate test is performed on the water-absorbent resin having a particle diameter of 250 to 500 μm at 37°C is 5 to 20: cavity area ratio % = total cross-sectional area B of cavity portions of the water-absorbent resin/ total cross-sectional area A of resin portions of the water- absorbent resin + total cross-sectional area B of cavity portions of the water-absorbent resin × 100 ; and liquid flow rate index = liquid flow rate CPR 2 during 10 second period between 50 seconds and 60 seconds after initiation of liquid flow/liquid flow rate CPR 1 during 10 second period after initiation of liquid flow × 100 . when a cross-sectional image of the water-absorbent resin obtained by X-ray computed tomography is observed, a ratio (cavity area ratio) as calculated by Equation (I) of an area of cavity portions in the cross-sectional image is 5 to 8%, and a liquid flow rate index as calculated by Equation (II) when a physiological saline liquid column flow rate test is performed on the water-absorbent resin having a particle diameter of 250 to 500 μm at 37°C is 5 to 20: cavity area ratio % = total cross-sectional area B of cavity portions of the water-absorbent resin/ total cross-sectional area A of resin portions of the water- absorbent resin + total cross-sectional area B of cavity portions of the water-absorbent resin × 100 ; and liquid flow rate index = liquid flow rate CPR 2 during 10 second period between 50 seconds and 60 seconds after initiation of liquid flow/liquid flow rate CPR 1 during 10 second period after initiation of liquid flow × 100 .
A fluid-operated control device for double-acting actuators, characterized in that it comprises a valve body which integrates a first overcenter valve in which the inlet is connected to a distribution device by means of a first connecting branch and the outlet is connectable to a first chamber of at least one fluid-operated cylinder, said valve body further integrating a second overcenter valve in which the inlet is connected to said distribution device by means of a second connecting branch and the outlet is connectable to a second chamber of said fluid-operated cylinder, said first overcenter valve being actuatable by means of a first control branch which is connected to said second connecting branch with the interposition of a check valve and of a first choke and to said first connecting branch with the interposition of a second choke , said second overcenter valve being actuatable by means of a second control branch connected to said first connecting branch , said distribution device being provided with a control chamber and being automatically switchable between a first operating condition, in which said first connecting branch is connected to a delivery branch of a working fluid and said second connecting branch is connected to a return branch of said working fluid and said control chamber is connected to said return branch by means of a unidirectional throttle valve , and a second operating condition, in which said first connecting branch is connected to said return branch by means of said unidirectional throttle valve and said second connecting branch is connected to said delivery branch , the switching between said first operating condition and said second operating condition being controlled by an overpressure valve integrated in said valve body and having the inlet connected to said first connecting branch by means of a third control branch and the outlet connected to said control chamber .
An audio signal processing method executed by an audio signal processing device , comprising: decoding (S12, S21), by the audio signal processing device , an audio packet to obtain decoded audio and immitance spectral frequency/line spectral frequency (ISF/LSF) parameters; determining (S11, S26), by the audio signal processing device , a sudden increase of an amplitude of the decoded audio, the audio packet being a first audio packet received correctly after an occurrence of a packet loss; and mitigating (S13, S22), by the audio signal processing device , the sudden increase of the amplitude of the decoded audio, wherein the step of mitigating (S13, S22) the sudden increase of the amplitude of the decoded audio comprises changing a distance between elements of the ISF/LSF parameters so that the distances are wider. decoding (S12, S21), by the audio signal processing device , an audio packet to obtain decoded audio and immitance spectral frequency/line spectral frequency (ISF/LSF) parameters; determining (S11, S26), by the audio signal processing device , a sudden increase of an amplitude of the decoded audio, the audio packet being a first audio packet received correctly after an occurrence of a packet loss; and mitigating (S13, S22), by the audio signal processing device , the sudden increase of the amplitude of the decoded audio, wherein the step of mitigating (S13, S22) the sudden increase of the amplitude of the decoded audio comprises changing a distance between elements of the ISF/LSF parameters so that the distances are wider.
Timepiece movement comprising a movable element , which is capable of being driven along an axis of displacement and of being momentarily immobilised in any one stable position of a plurality of discrete stable positions, and a device for positioning said movable element in any one of the plurality of discrete stable positions, characterized in that the positioning device comprises a lever and a magnetic system formed of a first magnet , a second magnet integral with the lever and a magnetic structure integral with the movable element, said magnetic structure being formed of a highly magnetically permeable material and having, relative to said axis of displacement, a transverse dimension that varies periodically to define a plurality of periods respectively corresponding to the distances to be covered by the movable element between the positions of the plurality of discrete stable positions; in that the first and second magnets are arranged such that their magnetic axes are in opposite directions, in projection onto a reference axis (A REF ) substantially passing through the respective centres of said first and second magnets, and respectively on either side of the magnetic structure so that, when the movable element is driven along its displacement axis from any one stable position to the next stable position, the magnetic structure moves between the first and second magnets, the magnetic system being further arranged such that, when the movable element is driven along its axis of displacement, from any one stable position to the next stable position, a first magnetic torque exerted on the lever carrying the second magnet has a first direction over a first section (TR1a, TR1b) and a second direction, opposite to the first direction, over a second section (TR2) of the corresponding distance, said first direction corresponding to a return torque towards the movable element for a contact portion of said lever; and in that the magnetic structure is arranged along said axis of displacement such that, in each position of the plurality of discrete stable positions, said first magnetic torque is applied in said first direction.
Dryer, in particular a household laundry dryer, comprising - a drum for holding textiles, - a heat pump with a condenser and an evaporator , - an air circulation system for circulating air through the drum , the condenser and the evaporator for drying the textiles in the drum , - a first collecting container for collecting condensate, which is separated at the evaporator , wherein the dryer has a cleaning system for cleaning the front surface of the evaporator by means of the condensate collected in the first collecting container and the cleaning system has a feed line through which condensate water is fed from the first collecting container to the evaporator , characterised in that the feed line has an opening mechanism with a first openable opening arranged at the end of the feed line , adapted to accumulate the condensate water in the feed line when the first opening is closed. - a drum for holding textiles, - a heat pump with a condenser and an evaporator , - an air circulation system for circulating air through the drum , the condenser and the evaporator for drying the textiles in the drum , - a first collecting container for collecting condensate, which is separated at the evaporator , wherein the dryer has a cleaning system for cleaning the front surface of the evaporator by means of the condensate collected in the first collecting container and the cleaning system has a feed line through which condensate water is fed from the first collecting container to the evaporator , characterised in that the feed line has an opening mechanism with a first openable opening arranged at the end of the feed line , adapted to accumulate the condensate water in the feed line when the first opening is closed.
A decoding apparatus, comprising: - at least one processor; and - at least one memory including computer program code; wherein the at least one processor and the at least one memory are configured to cause the decoding apparatus to at least perform: - receiving a skeleton file from an encoding apparatus via a communication network, the skeleton file including at least one identification corresponding with at least one representation of at least one object and including a residual, wherein the at least one object relates to a media file patch of a media file and wherein the residual represents a difference between the media file patch and a representation based on the at least one representation; - decoding the skeleton file using the at least one identification for looking up the at least one corresponding representation in a dictionary of a storage medium; - extracting from the skeleton file the residual; - decoding the residual; and - rendering the media file patch based on the looked-up at least one corresponding representation and the decoded residual. - at least one processor; and - at least one memory including computer program code; - receiving a skeleton file from an encoding apparatus via a communication network, the skeleton file including at least one identification corresponding with at least one representation of at least one object and including a residual, wherein the at least one object relates to a media file patch of a media file and wherein the residual represents a difference between the media file patch and a representation based on the at least one representation; - decoding the skeleton file using the at least one identification for looking up the at least one corresponding representation in a dictionary of a storage medium; - extracting from the skeleton file the residual; - decoding the residual; and - rendering the media file patch based on the looked-up at least one corresponding representation and the decoded residual.
A method for determining the amount of insulin in a biological sample by tandem mass spectrometry, the method comprising: (a) subjecting the sample to conditions suitable to generate insulin B chains from insulin; (b) processing the sample from step (a) by solid phase extraction (SPE) to obtain a fraction enriched in insulin B chains; (c) subjecting the enriched insulin B chains to electrospray ionization (ESI) to generate one or more insulin B chain ions detectable by mass spectrometry; and (d) determining the amount of one or more insulin B chain ions by tandem mass spectrometry, wherein said one or more ions determined comprise one or more fragment ions selected from the group consisting of ions-with mass to charge ratios (m/z) of 906.0 ± 0.5, 825.0 ± 0.5, 768.5 ± 0.5, 753.0 ± 0.5, 703.0 ± 0.5, and 345.0 ± 0.5, wherein the amount of ions determined in step (d) is related to the amount of insulin in said sample. (a) subjecting the sample to conditions suitable to generate insulin B chains from insulin; (b) processing the sample from step (a) by solid phase extraction (SPE) to obtain a fraction enriched in insulin B chains; (c) subjecting the enriched insulin B chains to electrospray ionization (ESI) to generate one or more insulin B chain ions detectable by mass spectrometry; and (d) determining the amount of one or more insulin B chain ions by tandem mass spectrometry, wherein said one or more ions determined comprise one or more fragment ions selected from the group consisting of ions-with mass to charge ratios (m/z) of 906.0 ± 0.5, 825.0 ± 0.5, 768.5 ± 0.5, 753.0 ± 0.5, 703.0 ± 0.5, and 345.0 ± 0.5,
An aerosol generation device , configured to heat an aerosol-forming substrate to generate an aerosol for inhalation, and comprising: a housing , provided with a through hole and an air inlet ; a cavity , wherein the aerosol-forming substrate is received in the cavity or removed from the cavity through the through hole ; a heater , configured to heat the aerosol-forming substrate received in the cavity ; a heat drain device , arranged on a gas flow path extending between the air inlet and the through hole ; the aerosol generation device characterized in that it further comprises: a circuit , configured to, after the heater starts for heating and before the heater enters an inhalation stage, control the heat drain device to start operation to drain hot air generated by heating out of the housing along the gas flow path, wherein a temperature variation curve of the heater comprises at least a temperature rise stage and the inhalation stage. a housing , provided with a through hole and an air inlet ; a cavity , wherein the aerosol-forming substrate is received in the cavity or removed from the cavity through the through hole ; a heater , configured to heat the aerosol-forming substrate received in the cavity ; a heat drain device , arranged on a gas flow path extending between the air inlet and the through hole ; the aerosol generation device characterized in that it further comprises: a circuit , configured to, after the heater starts for heating and before the heater enters an inhalation stage, control the heat drain device to start operation to drain hot air generated by heating out of the housing along the gas flow path, wherein a temperature variation curve of the heater comprises at least a temperature rise stage and the inhalation stage.
A non-transitory machine-readable storage medium comprising instructions, that, when executed, cause a processing resource to: receive a fast Fourier transform FFT of a high frequency radio signal, wherein the FFT comprises a direct current DC carrier frequency bin, a first guard frequency bin lower than the DC carrier frequency bin, located to correspond to a lowest frequency in a Long Term Evolution LTE signal, and a second guard frequency bin higher than the DC carrier frequency bin, located to correspond to a highest frequency in a Long Term Evolution LTE signal; determine a first signal strength at the first guard frequency bin; determine a second signal strength at the second guard frequency bin; determine a third signal strength at the DC carrier frequency bin; and characterized in that the instructions are further to cause the processing resource to: classify the high frequency radio signal, wherein classifying the high frequency radio signal comprises determining whether the high frequency radio signal is a LTE signal based on the first signal strength, the second signal strength, and the third signal strength. receive a fast Fourier transform FFT of a high frequency radio signal, wherein the FFT comprises a direct current DC carrier frequency bin, a first guard frequency bin lower than the DC carrier frequency bin, located to correspond to a lowest frequency in a Long Term Evolution LTE signal, and a second guard frequency bin higher than the DC carrier frequency bin, located to correspond to a highest frequency in a Long Term Evolution LTE signal; determine a first signal strength at the first guard frequency bin; determine a second signal strength at the second guard frequency bin; determine a third signal strength at the DC carrier frequency bin; and characterized in that the instructions are further to cause the processing resource to: classify the high frequency radio signal, wherein classifying the high frequency radio signal comprises determining whether the high frequency radio signal is a LTE signal based on the first signal strength, the second signal strength, and the third signal strength.
An ophthalmic composition, comprising from 0.001 wt% to 0.05 wt% of a muscarinic antagonist and deuterated water, at a pD of from 4.2 to 7.9, wherein the muscarinic antagonist is atropine or atropine sulfate.