mhurhangee/patent-ind-claim-en huggingface dataset:
A preparation process of black tea from yerba mate comprising the following steps: - withering the young leaves (buds) of yerba mate, where the leaves should remain dehydrating for 12 to 14 hours to remove 65 to 67% moisture, - extracting the juice from the leaves and immediately to start rolling the leaves for the first time for 20 minutes, - afterwards, the oxidation or fermentation process is performed in which the leaves are placed in sieves near a fan for about one hour, - next, the oven drying step is performed at 110 °C for about 24 minutes, and, - the last step is segregation/sorting which consists of separating the larger/whole leaf, broken leaf and particulate leaf. - withering the young leaves (buds) of yerba mate, where the leaves should remain dehydrating for 12 to 14 hours to remove 65 to 67% moisture, - extracting the juice from the leaves and immediately to start rolling the leaves for the first time for 20 minutes, - afterwards, the oxidation or fermentation process is performed in which the leaves are placed in sieves near a fan for about one hour, - next, the oven drying step is performed at 110 °C for about 24 minutes, and, - the last step is segregation/sorting which consists of separating the larger/whole leaf, broken leaf and particulate leaf.
Device for manually controlling a mechanism for a timepiece , comprising two counteracting manual corrector actuators , arranged to be operated by a user and to control one and the same correction wheel set in opposing movements, each of the two manual corrector actuators setting in motion an associated corrector having a beak which is configured to bear against a relief of said correction wheel set and to cause said correction wheel set to move when said manual corrector actuator is moved over its full path of travel under the action of the user, said manual control device comprising a locking lever mechanism arranged to prohibit an action of one of the two manual corrector actuators on said correction wheel set when the other of the two manual corrector actuators is engaged and interacting with said correction wheel set , characterised in that said locking lever mechanism comprises a locking lever configured to be driven in rotation during the engagement of one of the two manual corrector actuators , in order to limit the travel of the other of the two manual corrector actuators and to prevent the corrector associated therewith from accessing said correction wheel set .
A conductivity sensor, comprising: a first pair of sense electrodes having a first cell constant; a second pair of sense electrodes having a second cell constant different than the first cell constant; wherein the first and second pairs of sense electrodes are each configured to measure a conductivity of a fluid, and wherein the first and second pairs of sense electrodes combine to increase a range of conductivity measurements that fall below an acceptable error threshold; wherein the conductivity sensor is disposed within a dialysis system; wherein the first cell constant ranges from 0.1 to 1.0 and the second cell constant ranges from 1.0 to 5.0; wherein the first pair of sense electrodes comprises a first sense electrode and a second sense electrode, and the second pair of sense electrodes comprises a third sense electrode and a fourth sense electrode; and wherein the first and second sense electrodes are positioned between a first drive electrode and a second drive electrode, and the third and fourth sense electrodes are positioned between the second drive electrode and a third drive electrode. a first pair of sense electrodes having a first cell constant; a second pair of sense electrodes having a second cell constant different than the first cell constant; wherein the first and second pairs of sense electrodes are each configured to measure a conductivity of a fluid, and wherein the first and second pairs of sense electrodes combine to increase a range of conductivity measurements that fall below an acceptable error threshold; wherein the conductivity sensor is disposed within a dialysis system; wherein the first cell constant ranges from 0.1 to 1.0 and the second cell constant ranges from 1.0 to 5.0; wherein the first pair of sense electrodes comprises a first sense electrode and a second sense electrode, and the second pair of sense electrodes comprises a third sense electrode and a fourth sense electrode; and wherein the first and second sense electrodes are positioned between a first drive electrode and a second drive electrode, and the third and fourth sense electrodes are positioned between the second drive electrode and a third drive electrode.
Sustaining system for a timepiece oscillator comprising an inertial mass arranged to oscillate under the effect of a return force supplied by an elastic element, said system comprising: - an impulse wheel intended to be kinematically connected to an energy source and arranged to supply impulses to said inertial mass in order to sustain the oscillation thereof; - a blocking member arranged to sequentially block and release said impulse wheel ; characterized in that said system also comprises - a control mobile arranged to command said blocking member to block and release said impulse wheel in synchronism with the oscillations of said inertial mass ; and - a transmission member arranged to drive said control mobile in rotation at a rate of one step per oscillation of said inertial mass . - an impulse wheel intended to be kinematically connected to an energy source and arranged to supply impulses to said inertial mass in order to sustain the oscillation thereof; - a blocking member arranged to sequentially block and release said impulse wheel ; - a control mobile arranged to command said blocking member to block and release said impulse wheel in synchronism with the oscillations of said inertial mass ; and - a transmission member arranged to drive said control mobile in rotation at a rate of one step per oscillation of said inertial mass .
A method implemented in a wireless device, WD, to mitigate channel quality indication, CQI, saturation in a channel state information, CSI, report to a network node , the method comprising: receiving (S134) configuration information comprising a power offset value, a number of channel state information reference signal, CSI-RS, ports and a rank restriction; generating (S136) the CSI report, the CSI report comprising a CQI value based at least in part on the received configuration information; and causing (S138) transmission of the CSI report. receiving (S134) configuration information comprising a power offset value, a number of channel state information reference signal, CSI-RS, ports and a rank restriction; generating (S136) the CSI report, the CSI report comprising a CQI value based at least in part on the received configuration information; and causing (S138) transmission of the CSI report.
A method performed by a station, STA, of a wireless local area network, WLAN, the method comprising: transmitting, from the STA to an access point, AP, an indication of a first traffic priority and an amount of traffic for the indicated traffic priority; receiving a trigger frame, from the AP, subsequent to the transmitting of the indication of the first traffic priority and the amount of traffic for the indicated traffic priority, wherein the trigger frame is a trigger for multi-user, MU, traffic and the trigger frame indicates a second traffic priority and an ACK policy corresponding to an ACK type; in response to receiving the trigger frame, transmitting, by the STA to the AP, at least one aggregated medium access control protocol data unit, A-MPDU, in accordance with the ACK policy, wherein the at least one A-MPDU comprises a plurality of data frames, wherein the plurality of data frames have a priority greater than or equal to the indicated second traffic priority. transmitting, from the STA to an access point, AP, an indication of a first traffic priority and an amount of traffic for the indicated traffic priority; receiving a trigger frame, from the AP, subsequent to the transmitting of the indication of the first traffic priority and the amount of traffic for the indicated traffic priority, wherein the trigger frame is a trigger for multi-user, MU, traffic and the trigger frame indicates a second traffic priority and an ACK policy corresponding to an ACK type; in response to receiving the trigger frame, transmitting, by the STA to the AP, at least one aggregated medium access control protocol data unit, A-MPDU, in accordance with the ACK policy, wherein the at least one A-MPDU comprises a plurality of data frames, wherein the plurality of data frames have a priority greater than or equal to the indicated second traffic priority.
An aerosol-generating article for use with an aerosol-generating device comprising a heating element, the aerosol-generating article comprising: an aerosol-forming substrate ; a substantially incombustible wrapper circumscribing the aerosol-forming substrate and comprising inner and outer surfaces; wherein the inner surface of the wrapper has an at least partially textured surface configured to overlap a portion of the outer surface of the wrapper when the wrapper is wrapped around the aerosol-forming substrate , and wherein the at least partially textured surface extends partially around the circumference of the aerosol forming substrate . an aerosol-forming substrate ; a substantially incombustible wrapper circumscribing the aerosol-forming substrate and comprising inner and outer surfaces; wherein the inner surface of the wrapper has an at least partially textured surface configured to overlap a portion of the outer surface of the wrapper when the wrapper is wrapped around the aerosol-forming substrate , and wherein the at least partially textured surface extends partially around the circumference of the aerosol forming substrate .
A wireless electric power transmission system comprising: two antennas having the ability to transmit electric power by a non-contact method via resonant magnetic coupling, one of the two antennas being a series resonant circuit, of which the resonant frequency is fs, the other antenna being a parallel resonant circuit, of which the resonant frequency is fp, wherein fs/fp is set to be a value that is less than one; a control section configured to control a transmission frequency; and an oscillator configured to receive electric power from a power supply and to convert the received power into RF power with the transmission frequency, said oscillator being connected to one of the two antennas that transmits the RF power, characterized in that the control section is configured to control the transmission frequency according to the magnitude of the electric power to be transmitted from one of the two antennas to the other and to change a relation between the transmission frequency and the electric power according to a standard value that depends on a coupling coefficient k between the two antennas and fs/fp. two antennas having the ability to transmit electric power by a non-contact method via resonant magnetic coupling, one of the two antennas being a series resonant circuit, of which the resonant frequency is fs, the other antenna being a parallel resonant circuit, of which the resonant frequency is fp, wherein fs/fp is set to be a value that is less than one; a control section configured to control a transmission frequency; and an oscillator configured to receive electric power from a power supply and to convert the received power into RF power with the transmission frequency, said oscillator being connected to one of the two antennas that transmits the RF power, characterized in that the control section is configured to control the transmission frequency according to the magnitude of the electric power to be transmitted from one of the two antennas to the other and to change a relation between the transmission frequency and the electric power according to a standard value that depends on a coupling coefficient k between the two antennas and fs/fp.
A method for efficiently generating power from a turbine using nitrogen, comprising: providing air that includes nitrogen and oxygen to an air separation unit ; condensing at least a portion of the nitrogen in the air to form liquid nitrogen in the air separating unit ; separating in the air separating unit at least a portion of the liquid nitrogen from the oxygen and/or other components in air to produce a separated nitrogen-rich stream and a separated oxygen-rich stream ; collecting at least a portion of the oxygen-rich stream and using the separated oxygen-rich stream in an oxy-fired hydrocarbon processing unit ; pressurizing the separated nitrogen-rich stream to a pressure of at least 1.8 atmospheres while being in the liquid state by using a pump , heating the pressurized nitrogen-rich stream in a heat exchanger that cools air in the air separation unit and then further heating the pressurised nitrogen-rich stream in a furnace to the operating pressure and temperature of a turbine , the temperature being from about 150°C to 800°C, expanding the further heated, pressurized nitrogen-rich stream in the turbine to produce power; characterized in that the method further comprises storing the pressurized nitrogen-rich stream in a vessel , wherein the power being produced is placed on a power grid having periods of high power demand and periods of low power demand, wherein the pressurized nitrogen-rich stream is stored during a period of low power demand and expanded to produce power during a period of high power demand. providing air that includes nitrogen and oxygen to an air separation unit ; condensing at least a portion of the nitrogen in the air to form liquid nitrogen in the air separating unit ; separating in the air separating unit at least a portion of the liquid nitrogen from the oxygen and/or other components in air to produce a separated nitrogen-rich stream and a separated oxygen-rich stream ; collecting at least a portion of the oxygen-rich stream and using the separated oxygen-rich stream in an oxy-fired hydrocarbon processing unit ; pressurizing the separated nitrogen-rich stream to a pressure of at least 1.8 atmospheres while being in the liquid state by using a pump , heating the pressurized nitrogen-rich stream in a heat exchanger that cools air in the air separation unit and then further heating the pressurised nitrogen-rich stream in a furnace to the operating pressure and temperature of a turbine , the temperature being from about 150°C to 800°C, expanding the further heated, pressurized nitrogen-rich stream in the turbine to produce power; characterized in that the method further comprises storing the pressurized nitrogen-rich stream in a vessel , wherein the power being produced is placed on a power grid having periods of high power demand and periods of low power demand, wherein the pressurized nitrogen-rich stream is stored during a period of low power demand and expanded to produce power during a period of high power demand.
A crystalline sodium salt of 5-methyl- -tetrahydrofolic acid wherein the molar ratio of 5-methyl- -tetrahydrofolic acid to sodium is from 1:0.5 to 1:1.5 or hydrates or solvates thereof.
A terminal comprising: a receiving section configured to receive a timing advance command; a control section configured to control a time alignment timer which starts or restarts in response to reception of the timing advance command, in a same time unit as a subframe, even for uplink transmission using a shorter time unit than the subframe; and a transmission section configured to perform uplink transmission by using a time unit that is equal to or shorter than the subframe, based on the time alignment timer, wherein the receiving section is configured to receive a MAC control element including the time advance command by using a downlink shared channel that is scheduled by downlink control information transmitted in the shorter time unit than the subframe. a receiving section configured to receive a timing advance command; a control section configured to control a time alignment timer which starts or restarts in response to reception of the timing advance command, in a same time unit as a subframe, even for uplink transmission using a shorter time unit than the subframe; and a transmission section configured to perform uplink transmission by using a time unit that is equal to or shorter than the subframe, based on the time alignment timer, wherein the receiving section is configured to receive a MAC control element including the time advance command by using a downlink shared channel that is scheduled by downlink control information transmitted in the shorter time unit than the subframe.
Coated gas turbine engine part comprising a substrate and at least one calcium-magnesium-alumino-silicate (CMAS) protection layer present on said substrate, the protective layer comprising a first phase of a material capable of forming an apatite or anorthite phase in the presence of calcium-magnesium-aluminosilicates (CMAS) and a second phase comprising particles of at least one rare-earth RE a silicate dispersed in the first phase, characterized in that the material of the first phase capable of forming phases apatite or anorthite phases is a calcium-magnesium-alumino-silicate (CMAS) protection material and corresponds to one of the following materials or a mixture of several of the following materials: rare-earth zirconates RE b 2 Zr 2 O 7 , where RE b = Y (yttrium), La (lanthanum), Ce (cerium), Pr (praseodymium), Nd (neodymium), Pm (promethium), Sm (samarium), Eu (europium), Gd (gadolinium), Tb (terbium), Dy (dysprosium), Ho (holmium), Er (erbium), Tm (thulium), Yb (ytterbium), Lu (lutecium), fully stabilized zirconia, delta phases A 4 B 3 O 12 , where A= Y → Lu and B = Zr, Hf, composites Y 2 O 3 with ZrO 2 , yttrium and aluminium garnets (YAG), composites YSZ-Al 2 O 3 or YSZ-Al 2 O 3 -TiO 2 .
A method for accessing a network by user equipment, UE, comprising: receiving , by first UE, data that is sent by second UE by using a communications link between the first UE and the second UE; characterized in that the method comprises: obtaining , by the first UE, a first identifier and a data radio bearer, DRB, of the first UE that are corresponding to the communications link; and sending , by the first UE, the data to a base station by using the DRB of the first UE, wherein a packet data unit, PDU, carrying the data that is sent by using the DRB of the first UE comprises the first identifier, and the first identifier is in a one-to-one correspondence with the second UE. receiving , by first UE, data that is sent by second UE by using a communications link between the first UE and the second UE; characterized in that the method comprises: obtaining , by the first UE, a first identifier and a data radio bearer, DRB, of the first UE that are corresponding to the communications link; and sending , by the first UE, the data to a base station by using the DRB of the first UE, wherein a packet data unit, PDU, carrying the data that is sent by using the DRB of the first UE comprises the first identifier, and the first identifier is in a one-to-one correspondence with the second UE. obtaining , by the first UE, a first identifier and a data radio bearer, DRB, of the first UE that are corresponding to the communications link; and sending , by the first UE, the data to a base station by using the DRB of the first UE, wherein a packet data unit, PDU, carrying the data that is sent by using the DRB of the first UE comprises the first identifier, and the first identifier is in a one-to-one correspondence with the second UE.
A method , comprising: hosting a grid application function at a primary grid device in a utility grid , wherein the grid application function carries out grid control operations for a plurality of devices in the utility grid ; determining , at the primary grid device , whether to distribute at least a portion of the grid application function to one or more distributed secondary grid devices in the utility grid , the one or more distributed secondary grid devices associated with a subset of the utility grid associated with the primary grid device , the subset comprising measurement and control devices; and dynamically distributing , by the primary grid device , at least the portion of the grid application function to the one or more distributed secondary grid devices according to the determining, wherein at least the dynamically distributed portion of the grid application function is run on the one or more secondary grid devices to perform the dynamically distributed portion of the grid application function for the subset of measurement and control devices that would otherwise be performed by the primary grid device . hosting a grid application function at a primary grid device in a utility grid , wherein the grid application function carries out grid control operations for a plurality of devices in the utility grid ; determining , at the primary grid device , whether to distribute at least a portion of the grid application function to one or more distributed secondary grid devices in the utility grid , the one or more distributed secondary grid devices associated with a subset of the utility grid associated with the primary grid device , the subset comprising measurement and control devices; and dynamically distributing , by the primary grid device , at least the portion of the grid application function to the one or more distributed secondary grid devices according to the determining, wherein at least the dynamically distributed portion of the grid application function is run on the one or more secondary grid devices to perform the dynamically distributed portion of the grid application function for the subset of measurement and control devices that would otherwise be performed by the primary grid device .
A slide rail device for vehicle comprising: a lower rail which extends in a forward/rearward direction; an upper rail which is supported by said lower rail to be slidable in said forward/rearward direction; a locking mechanism which is provided between said upper rail and said lower rail and restricts or releases a restriction on sliding of said upper rail ; a lock release lever which switches said locking mechanism between a slide restriction state and a slide restriction release state by rotating in a vertical direction and includes a rail-incorporated portion positioned between said upper rail and a bottom wall of said lower rail ; a rotational contact portion which is formed on an upper surface of said rail-incorporated portion , contacts a ceiling plane of said upper rail and rotatably supports said lock release lever ; and a biaser which is installed to said rail-incorporated portion and said upper rail and biases said rotational contact portion toward said ceiling plane. a lower rail which extends in a forward/rearward direction; an upper rail which is supported by said lower rail to be slidable in said forward/rearward direction; a locking mechanism which is provided between said upper rail and said lower rail and restricts or releases a restriction on sliding of said upper rail ; a lock release lever which switches said locking mechanism between a slide restriction state and a slide restriction release state by rotating in a vertical direction and includes a rail-incorporated portion positioned between said upper rail and a bottom wall of said lower rail ; a rotational contact portion which is formed on an upper surface of said rail-incorporated portion , contacts a ceiling plane of said upper rail and rotatably supports said lock release lever ; and a biaser which is installed to said rail-incorporated portion and said upper rail and biases said rotational contact portion toward said ceiling plane.