mhurhangee/patent-ind-claim-en huggingface dataset:
A congestion control method of a mobile communication system, the method comprising: identifying a congestion state (S410); identifying congestion control information including required physical resource information of each of a plurality of users and in-use physical resource information of each of the plurality of users (S420); determining at least one resource release target user based on the required physical resource information and the in-use physical resource information (S430); and releasing resources allocated to the at least one resource release target user. identifying a congestion state (S410); identifying congestion control information including required physical resource information of each of a plurality of users and in-use physical resource information of each of the plurality of users (S420); determining at least one resource release target user based on the required physical resource information and the in-use physical resource information (S430); and releasing resources allocated to the at least one resource release target user.
System for producing synthesis gas from renewable resources comprising - at least one means for capturing water vapour from ambient air; - at least one means for providing energy by wind and/or solar and/or hydro energy; - at least one storage means for storing the water vapour captured from the ambient air without going via the liquid phase of the water vapour; - at least one means for performing a direct steam electrolysis of the water vapour stored by the storage means , wherein said means for providing energy is the power source for at least the means for performing a steam electrolysis; and - at least one storage means for storing the synthesis gas provided by said means for performing steam electrolysis, wherein the synthesis gas is hydrogen gas and/or oxygen gas. - at least one means for capturing water vapour from ambient air; - at least one means for providing energy by wind and/or solar and/or hydro energy; - at least one storage means for storing the water vapour captured from the ambient air without going via the liquid phase of the water vapour; - at least one means for performing a direct steam electrolysis of the water vapour stored by the storage means , wherein said means for providing energy is the power source for at least the means for performing a steam electrolysis; and - at least one storage means for storing the synthesis gas provided by said means for performing steam electrolysis, wherein the synthesis gas is hydrogen gas and/or oxygen gas.
A clasp with a folding buckle for a wristwatch, comprising at least one first arm and a second arm articulated with respect to one another around an axis , said clasp having, on the one hand, a locking device for holding said first arm and second arm in the folded position on top of one another in the closed position of the clasp and, on the other hand, a device for adjusting the effective length of said strap comprising a linking element mounted slidingly under a top cover of said clasp , and a stop element cooperating with said sliding linking element , as well as a control member which can be actuated from a rest position (Pr) towards an active position (Pa), characterised in that the end of said second arm opposite said axis comprises attachment means to a first strand (B1) of the strap, and in that the end of the first arm opposite said axis is connected in an articulated manner to said sliding linking element , and in that said control member is arranged so as to be able, when it is located in the active position (Pa), to simultaneously bring about the unlocking of said clasp by acting on a locking element , and to release said linking element from said stop element , said sliding linking element being able to be moved, when said control member is located in said active position (Pa), independently of the open or closed position of said clasp .
A rotary collider air mill apparatus comprising: a polygonal housing having a front plate and a back plate and 5 or more side plates (131-138); a horizontal drive shaft passing through the central portion of said polygonal housing; characterized in that a sprocket is mounted on said horizontal drive shaft and has arms extending radially from a central hub; 3 or more blade sections are attached to said arms; wherein the sprocket may be rotated by the horizontal drive shaft inside the polygonal housing , thereby moving the 3 or more blade sections to create a chaotic air flow within said polygonal housing ; and wherein said 3 or more blade sections are arranged such that they can achieve an air velocity of greater than 600 miles per hour in use. a polygonal housing having a front plate and a back plate and 5 or more side plates (131-138); a horizontal drive shaft passing through the central portion of said polygonal housing; characterized in that a sprocket is mounted on said horizontal drive shaft and has arms extending radially from a central hub; 3 or more blade sections are attached to said arms; wherein the sprocket may be rotated by the horizontal drive shaft inside the polygonal housing , thereby moving the 3 or more blade sections to create a chaotic air flow within said polygonal housing ; and wherein said 3 or more blade sections are arranged such that they can achieve an air velocity of greater than 600 miles per hour in use.
A method for processing cells, said method comprising: a) mixing cells with a first ionic liquid (IL) containing clarified cell lysate to form a crude cell lysate; b) removing debris from said crude cell lysate to form a second clarified cell lysate; c) separating lipid-containing hydrophobic and ionic liquid-containing hydrophilic phases present in the second clarified cell lysate; and d) isolating the lipid-containing hydrophobic phase from the ionic liquid-containing hydrophilic phase; wherein the first clarified cell lysate comprises at least 65% hydrophilic ionic liquid by weight and the total amount of water in the crude cell lysate formed in step a) is not more than 45% by weight. a) mixing cells with a first ionic liquid (IL) containing clarified cell lysate to form a crude cell lysate; b) removing debris from said crude cell lysate to form a second clarified cell lysate; c) separating lipid-containing hydrophobic and ionic liquid-containing hydrophilic phases present in the second clarified cell lysate; and d) isolating the lipid-containing hydrophobic phase from the ionic liquid-containing hydrophilic phase; wherein the first clarified cell lysate comprises at least 65% hydrophilic ionic liquid by weight and the total amount of water in the crude cell lysate formed in step a) is not more than 45% by weight.
A method for determining a schedule for contact between a ground segment and a space segment, the space segment comprising a constellation of satellites in orbit, in which the number of satellites is N sat , and the ground segment comprising multiple ground stations, each ground station having one or more antennas, such that the overall number of ground station antennas in the ground segment is N ant , the method comprising: - selecting a subset of no more than N ant satellites from the N sat satellites for contact at a given epoch with the ground segment; and - allocating each of the selected satellites to a respective antenna in a one-to-one relationship at the given epoch; wherein said selecting the subset of no more than N ant satellites from the N sat satellites comprises determining a subset of no more than N ant satellites that has maximum spatial diversity at the given epoch, wherein spatial diversity represents the union of the coverage areas of the allocated satellites. - selecting a subset of no more than N ant satellites from the N sat satellites for contact at a given epoch with the ground segment; and - allocating each of the selected satellites to a respective antenna in a one-to-one relationship at the given epoch;
A method implemented at a terminal device , comprising: receiving, from a network device , first trigger information in a first Downlink Control Information, DCI, format corresponding to a Physical Downlink Shared Channel, PDSCH, the first trigger information relating to Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information of the PDSCH; if the first trigger information does not indicate a timing for transmitting the HARQ-ACK information and the terminal device receives second trigger information in a second DCI format from the network device , the second trigger information indicating a timing for transmitting the HARQ-ACK information, multiplexing the HARQ-ACK information of the PDSCH in a Physical Uplink Control Channel, PUCCH, transmission at the timing indicated by the second trigger information, wherein the second trigger information is scrambled by a dedicated Radio Network Temporary Identifier, RNTI; and transmitting, to the network device , the HARQ-ACK information multiplexed in the PUCCH transmission, based on the second trigger information. receiving, from a network device , first trigger information in a first Downlink Control Information, DCI, format corresponding to a Physical Downlink Shared Channel, PDSCH, the first trigger information relating to Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information of the PDSCH; if the first trigger information does not indicate a timing for transmitting the HARQ-ACK information and the terminal device receives second trigger information in a second DCI format from the network device , the second trigger information indicating a timing for transmitting the HARQ-ACK information, multiplexing the HARQ-ACK information of the PDSCH in a Physical Uplink Control Channel, PUCCH, transmission at the timing indicated by the second trigger information, wherein the second trigger information is scrambled by a dedicated Radio Network Temporary Identifier, RNTI; and transmitting, to the network device , the HARQ-ACK information multiplexed in the PUCCH transmission, based on the second trigger information.
A tip assembly , comprising: a flex tip comprising a cap and at least one fiber support tube center ; and a multi-core fiber comprising a plurality of cores and a fiber support tube , the plurality of cores configured to provide optical conduits for respective shape sensing sensors, wherein the at least one fiber support tube center receives a distal portion of the fiber support tube and secures the distal portion of the fiber support tube to the cap of the flex tip , wherein the at least one fiber support tube center is configured to center the fiber support tube along a center-line of the flex tip . a flex tip comprising a cap and at least one fiber support tube center ; and a multi-core fiber comprising a plurality of cores and a fiber support tube , the plurality of cores configured to provide optical conduits for respective shape sensing sensors, wherein the at least one fiber support tube center receives a distal portion of the fiber support tube and secures the distal portion of the fiber support tube to the cap of the flex tip , wherein the at least one fiber support tube center is configured to center the fiber support tube along a center-line of the flex tip .
A system for treating an aneurysm, the system comprising: a first precursor material including a biopolymer; a second precursor material including a chemical crosslinking agent; and a catheter including an elongate lumen and an exit port at a distal end portion of the lumen, wherein the catheter is configured to convey a mixture of the first and second precursor materials toward and into an internal volume of an aneurysm at a portion of a blood vessel via the lumen and via the exit port wherein the mixture is configured to exit the port as a single cohesive strand, wherein the strand is configured to at least partially agglomerate within the aneurysm to form a mass, and wherein the catheter is at most 3 French. a first precursor material including a biopolymer; a second precursor material including a chemical crosslinking agent; and a catheter including an elongate lumen and an exit port at a distal end portion of the lumen, wherein the catheter is configured to convey a mixture of the first and second precursor materials toward and into an internal volume of an aneurysm at a portion of a blood vessel via the lumen and via the exit port wherein the mixture is configured to exit the port as a single cohesive strand, wherein the strand is configured to at least partially agglomerate within the aneurysm to form a mass, and wherein the catheter is at most 3 French.
A refrigeration cycle apparatus comprising: a refrigerant circuit including a condenser ; a plurality of temperature sensors each disposed in line in a direction in which refrigerant flows in the condenser and configured to detect refrigerant temperature of the condenser ; a memory unit configured to store positional information of the plurality of temperature sensors ; said refrigerant cycle apparatus being characterized by comprising a refrigerant amount calculation unit configured to calculate a refrigerant amount of the condenser based on the positional information of the plurality of temperature sensors , detected temperatures of the plurality of temperature sensors and a saturated liquid temperature of the refrigerant. a refrigerant circuit including a condenser ; a plurality of temperature sensors each disposed in line in a direction in which refrigerant flows in the condenser and configured to detect refrigerant temperature of the condenser ; a memory unit configured to store positional information of the plurality of temperature sensors ; said refrigerant cycle apparatus being characterized by comprising a refrigerant amount calculation unit configured to calculate a refrigerant amount of the condenser based on the positional information of the plurality of temperature sensors , detected temperatures of the plurality of temperature sensors and a saturated liquid temperature of the refrigerant.
A method for controlling a recording volume, comprising: determining (S101) an adjustment gain according to a preset reference index of a reference apparatus; and calibrating (S102) a recording volume of at least one voice interaction apparatus based on the adjustment gain to make the at least one voice interaction apparatus have a same recording volume under a same sound pressure level, wherein the preset reference index comprises microphone sensitivity; and the voice interaction apparatus comprises a voice interaction apparatus provided with an analog microphone and an analog-to-digital converter, wherein determining the adjustment gain according to the preset reference index of the reference apparatus comprises: determining first microphone sensitivity of the reference apparatus; and determining the adjustment gain based on the first microphone sensitivity, the second microphone sensitivity of the voice interaction apparatus and an analog-to-digital conversion quantified reference voltage of the voice interaction apparatus. determining (S101) an adjustment gain according to a preset reference index of a reference apparatus; and calibrating (S102) a recording volume of at least one voice interaction apparatus based on the adjustment gain to make the at least one voice interaction apparatus have a same recording volume under a same sound pressure level, wherein the preset reference index comprises microphone sensitivity; and the voice interaction apparatus comprises a voice interaction apparatus provided with an analog microphone and an analog-to-digital converter, wherein determining the adjustment gain according to the preset reference index of the reference apparatus comprises: determining first microphone sensitivity of the reference apparatus; and determining the adjustment gain based on the first microphone sensitivity, the second microphone sensitivity of the voice interaction apparatus and an analog-to-digital conversion quantified reference voltage of the voice interaction apparatus. determining first microphone sensitivity of the reference apparatus; and determining the adjustment gain based on the first microphone sensitivity, the second microphone sensitivity of the voice interaction apparatus and an analog-to-digital conversion quantified reference voltage of the voice interaction apparatus.
A motor control device controlling a motor , comprising: a load-torque detecting unit configured to detect load torque of the motor ; and a current correcting unit configured to increase a current flowing through the motor in accordance with an increase in the load torque detected by the load-torque detecting unit , the load-torque detecting unit including a power factor calculating unit configured to calculate a power factor of the motor , the current correcting unit increasing the current flowing through the motor , the motor control device characterized by the current correcting unit determining that the load torque has increased when the power factor of the motor calculated by the power factor calculating unit is smaller than or equal to a reference value. a load-torque detecting unit configured to detect load torque of the motor ; and a current correcting unit configured to increase a current flowing through the motor in accordance with an increase in the load torque detected by the load-torque detecting unit , the load-torque detecting unit including a power factor calculating unit configured to calculate a power factor of the motor , the current correcting unit increasing the current flowing through the motor , the motor control device characterized by the current correcting unit determining that the load torque has increased when the power factor of the motor calculated by the power factor calculating unit is smaller than or equal to a reference value. a power factor calculating unit configured to calculate a power factor of the motor , the current correcting unit increasing the current flowing through the motor , the motor control device characterized by the current correcting unit determining that the load torque has increased when the power factor of the motor calculated by the power factor calculating unit is smaller than or equal to a reference value.
Liner for a wellbore having a sidewall in which one or more nozzles are formed, the liner comprising: a liner top packer which isolates the liner top such that during operation all fluid flow is through the nozzles; a liner shoe; and a liner shoe shut off device, wherein: the one or more nozzles are plugged by temporary plugs, and characterised in that : the liner shoe shut off device allows circulation during displacement operations and subsequently isolates the liner shoe, the liner shoe shut off device is configured to be shut by electronics activated by timer, RFID, pressure or flow. a liner top packer which isolates the liner top such that during operation all fluid flow is through the nozzles; a liner shoe; and a liner shoe shut off device, wherein: the one or more nozzles are plugged by temporary plugs, and characterised in that : the liner shoe shut off device allows circulation during displacement operations and subsequently isolates the liner shoe, the liner shoe shut off device is configured to be shut by electronics activated by timer, RFID, pressure or flow. the liner shoe shut off device allows circulation during displacement operations and subsequently isolates the liner shoe, the liner shoe shut off device is configured to be shut by electronics activated by timer, RFID, pressure or flow.
Aerosol-generating device comprising: a cavity for receiving an aerosol-generating article comprising aerosol-forming substrate, a heating element , wherein the heating element is arranged at least partly surrounding the cavity , and a stopper , wherein the stopper has a circular cross-section in a plane parallel to a longitudinal axis of the cavity and perpendicular to a longitudinal axis of the stopper, wherein the stopper is arranged at a distal portion of the cavity , wherein the stopper is configured to stop the aerosol-generating article , when the aerosol-generating article contacts the stopper , wherein the stopper is arranged transversally spanning the distal portion of the cavity , and wherein the stopper is arranged such that air can flow from distal of the stopper around the stopper into the cavity , wherein the terms 'proximal' and 'distal' describe the relative positions of components, or portions of components, of the aerosol-generating device in relation to the direction in which the components of the device are oriented relative to a user during use of the device with a component oriented towards a user, being a proximal component and a component at the opposite end of the device being a distal component. a cavity for receiving an aerosol-generating article comprising aerosol-forming substrate, a heating element , wherein the heating element is arranged at least partly surrounding the cavity , and a stopper , wherein the stopper has a circular cross-section in a plane parallel to a longitudinal axis of the cavity and perpendicular to a longitudinal axis of the stopper, wherein the stopper is arranged at a distal portion of the cavity , wherein the stopper is configured to stop the aerosol-generating article , when the aerosol-generating article contacts the stopper , wherein the stopper is arranged transversally spanning the distal portion of the cavity , and wherein the stopper is arranged such that air can flow from distal of the stopper around the stopper into the cavity , wherein the terms 'proximal' and 'distal' describe the relative positions of components, or portions of components, of the aerosol-generating device in relation to the direction in which the components of the device are oriented relative to a user during use of the device with a component oriented towards a user, being a proximal component and a component at the opposite end of the device being a distal component.