mhurhangee/patent-ind-claim-en huggingface dataset:
A resource selection apparatus used in a first eNB, the resource selection apparatus comprising: a first transmitting unit configured to transmit a handover request to a second eNB according to a measurement result transmitted by UE, the handover request comprising information on that the UE is performing D2D communication, and an allocation mode and a resource location of a D2D communication resource used by the UE; a first receiving unit configured to receive configuration information fed back by the second eNB according to the handover request, the configuration information comprising a time-frequency location of a resource pool configured in a resource allocation scheme of mode 2 by the second eNB, and information indicating whether the second eNB supports a resource allocation scheme in a resource allocation scheme of mode 1, and a resource location of a resource allocated in the resource allocation scheme of mode 1 by the second eNB; or the configuration information comprising a time-frequency location of a resource pool configured in a resource allocation scheme of mode 2 by the second eNB and a resource location of a resource allocated in the resource allocation scheme of mode 1 by the second eNB; and a first configuring unit configured to configure the configuration information for the UE, wherein the resource allocation scheme of mode 1 denotes that the resource for D2D communication is scheduled by an eNB; and the resource allocation scheme of mode 2 denotes that the resource for D2D communication is selected by UE from the resource pool. a first transmitting unit configured to transmit a handover request to a second eNB according to a measurement result transmitted by UE, the handover request comprising information on that the UE is performing D2D communication, and an allocation mode and a resource location of a D2D communication resource used by the UE; a first receiving unit configured to receive configuration information fed back by the second eNB according to the handover request, the configuration information comprising a time-frequency location of a resource pool configured in a resource allocation scheme of mode 2 by the second eNB, and information indicating whether the second eNB supports a resource allocation scheme in a resource allocation scheme of mode 1, and a resource location of a resource allocated in the resource allocation scheme of mode 1 by the second eNB; or the configuration information comprising a time-frequency location of a resource pool configured in a resource allocation scheme of mode 2 by the second eNB and a resource location of a resource allocated in the resource allocation scheme of mode 1 by the second eNB; and a first configuring unit configured to configure the configuration information for the UE, wherein the resource allocation scheme of mode 1 denotes that the resource for D2D communication is scheduled by an eNB; and the resource allocation scheme of mode 2 denotes that the resource for D2D communication is selected by UE from the resource pool.
Tower construction for a wind energy plant, having a tower shaft , a foundation and a transition-piece in the region of the upper end of the tower shaft , with tension members being provided radially inwards of the outer skin, by means of which the tower shaft is vertically prestressed at least in sections, and the tower shaft is made of concrete, in particular prestressed concrete, in the region between the transition piece and the foundation , characterised in that at the finished tower construction tensioning elements are provided, which are inclined relative to a longitudinal axis (A) of the tower shaft and extend radially outside the outer skin defined by the tower shaft , by which the tower shaft is tensioned at least in sections, and in that different types of concrete, different shaft cross-sections and different degrees of reinforcement are used in order to avoid harmonics of the tower construction.
A method of detecting a leak of a hydrocarbon, the method comprising the steps of: traversing a target area with a gas filter correlation radiometer having a field of view oriented towards the target area, the gas filter correlation radiometer comprising a bandpass filter and a gas correlation cell , the bandpass filter being arranged to filter radiation passing through the gas correlation cell in a first path and through an evacuated cell in a second path , the gas correlation cell containing a gas having a spectral band within the bandpass of the bandpass filter overlapping a spectral band of the hydrocarbon; detecting radiation that has passed through the gas correlation cell to generate a first signal; detecting radiation that has passed through the evacuated cell to generate a second signal; and comparing the first signal and the second signal to determine if the hydrocarbon is present in the target area; characterized in that the bandpass filter has a bandpass including at least part of the range of 4175 cm -1 to 4275 cm -1 and including a methane peak at 4350 cm -1 traversing a target area with a gas filter correlation radiometer having a field of view oriented towards the target area, the gas filter correlation radiometer comprising a bandpass filter and a gas correlation cell , the bandpass filter being arranged to filter radiation passing through the gas correlation cell in a first path and through an evacuated cell in a second path , the gas correlation cell containing a gas having a spectral band within the bandpass of the bandpass filter overlapping a spectral band of the hydrocarbon; detecting radiation that has passed through the gas correlation cell to generate a first signal; detecting radiation that has passed through the evacuated cell to generate a second signal; and comparing the first signal and the second signal to determine if the hydrocarbon is present in the target area; characterized in that the bandpass filter has a bandpass including at least part of the range of 4175 cm -1 to 4275 cm -1 and including a methane peak at 4350 cm -1
Valve for pressurized fluid comprising a body housing a fluid circuit having an upstream end intended to be placed in communication with a reserve of pressurized fluid and a downstream end intended to be placed in communication with a user of fluid, the circuit comprising a collection of valve shutter(s) comprising at least one shutoff valve shutter allowing the circuit to be closed or opened, the valve comprising a member for manually controlling the collection of valve shutter(s) , the control member being mounted with the ability to move on the body between a rest position in which the collection of valve shutter(s) is in a position in which the circuit is closed and an active position in which the control member actuates the collection of valve shutter(s) into a position in which the circuit is open with a first bore section (S1), the valve comprising a mechanism for locking the control member in its rest position, the locking mechanism comprising a manual actuator mounted with the ability to move on the body between a locked first position that locks the control member to prevent it from moving from its rest position toward its active position, and a second position in which the control member is unlocked allowing it to move from its rest position toward its active position, in its unlocked second position, the actuator placing the collection of valve shutter(s) in a position in which the circuit is open to a second bore section (S2), characterized in that it comprises a return member returning the actuator toward its locked first position.
A method of preparing a universal blood product comprising: contacting a blood product with a sanitized cleansing formulation comprising (i) hydroxyapatite in the form of porous granules; (ii) a carbonaceous material comprising at least a mixture of a first carbon particle having pores located therein, the pores having macroporous size α, and a second carbon particle having pores located therein, the pores having macroporous size β, macroporous size α ranging from 125 nm to 250 nm and macroporous size β ranging from 250 nm to 500 nm; and, in addition to the hydroxyapatite granules and the carbonaceous material, (iii) at least one support matrix functionalized with an antigenic determinant to form a cleansed product; and recovering the cleansed product , wherein the blood product comprises whole blood or plasma.
A Voltage Sourced Converter, VSC , for a High Voltage Direct Current, HVDC, power converter, the VSC being a Multilevel Modular Converter, MMC, the VSC comprising: a bridge circuit for each of one or more phases of an AC network, the bridge circuit comprising two arms , each arm being able to connect the AC network to a pole of a DC terminal, wherein each arm of the bridge circuit has an inductance , a branch equivalent impedance and one or more semiconductor modules capable of being switched between an on-condition, in which a capacitor of the semiconductor module is in-line in the arm of the bridge circuit, and an off-condition, in which the capacitor is out of line; a DC current fault detection arrangement configured to detect a fault arising within the Voltage Source Converter or at one or the other of the poles of the DC terminal; a built-in fault detector configured to detect either AC faults or DC faults; a controller configured, responsive to the detection of current faults by the DC current fault detection arrangement and/or the built-in fault detector, to switch one or more of the semiconductor modules in one of the arms of the bridge circuit to the on-condition and one or more of the semiconductor modules of the other arm of the bridge circuit to the off-condition, such that all electrical energy stored in the capacitors and inductances is released in the form of an LC oscillation and the branch equivalent impedance is maximised in order to minimise AC current faults through the VSC. a bridge circuit for each of one or more phases of an AC network, the bridge circuit comprising two arms , each arm being able to connect the AC network to a pole of a DC terminal, wherein each arm of the bridge circuit has an inductance , a branch equivalent impedance and one or more semiconductor modules capable of being switched between an on-condition, in which a capacitor of the semiconductor module is in-line in the arm of the bridge circuit, and an off-condition, in which the capacitor is out of line; a DC current fault detection arrangement configured to detect a fault arising within the Voltage Source Converter or at one or the other of the poles of the DC terminal; a built-in fault detector configured to detect either AC faults or DC faults; a controller configured, responsive to the detection of current faults by the DC current fault detection arrangement and/or the built-in fault detector, to switch one or more of the semiconductor modules in one of the arms of the bridge circuit to the on-condition and one or more of the semiconductor modules of the other arm of the bridge circuit to the off-condition, such that all electrical energy stored in the capacitors and inductances is released in the form of an LC oscillation and the branch equivalent impedance is maximised in order to minimise AC current faults through the VSC.
Thermal flow sensor for determining the temperature and the flow velocity of a flowing medium, wherein said sensor comprises: - a substrate with a first thermal resistance value, with a surface facing towards the medium and with a surface facing away from the medium ; - a functional element , which is designed to determine the temperature of the medium and to influence the temperature of the medium , wherein the functional element is applied to the surface of the substrate facing towards the medium , wherein a passivation layer with a second thermal resistance value is applied to the functional element , wherein the first thermal resistance value of the substrate is essentially greater by a factor of at least 10 than the second thermal resistance value of the passivation layer , and wherein a weldable layer is applied to the passivation layer ; - a support element in which the substrate with the applied functional element is introduced, wherein the support element is in contact with the medium and the functional element is applied to the support element by means of the weldable layer; and - a control and evaluation unit , which is designed to determine - in a first time interval - the temperature of the medium by means of the functional element and to determine - in a second time interval following the first time interval - the flow velocity of the medium . - a substrate with a first thermal resistance value, with a surface facing towards the medium and with a surface facing away from the medium ; - a functional element , which is designed to determine the temperature of the medium and to influence the temperature of the medium , wherein the functional element is applied to the surface of the substrate facing towards the medium , wherein a passivation layer with a second thermal resistance value is applied to the functional element , wherein the first thermal resistance value of the substrate is essentially greater by a factor of at least 10 than the second thermal resistance value of the passivation layer , and wherein a weldable layer is applied to the passivation layer ; wherein the first thermal resistance value of the substrate is essentially greater by a factor of at least 10 than the second thermal resistance value of the passivation layer , and wherein a weldable layer is applied to the passivation layer ; - a support element in which the substrate with the applied functional element is introduced, wherein the support element is in contact with the medium and the functional element is applied to the support element by means of the weldable layer; and - a control and evaluation unit , which is designed to determine - in a first time interval - the temperature of the medium by means of the functional element and to determine - in a second time interval following the first time interval - the flow velocity of the medium .
A method of coding video data, the method comprising: determining a plurality of sets of adaptive loop filters for a current slice; determining a respective set of adaptive loop filters, from among the plurality of sets of adaptive loop filters, per block of the current slice for blocks in which adaptive loop filtering is used, wherein determining the respective set of adaptive loop filters comprises: coding a respective syntax element indicating the respective set of adaptive loop filters, from among the plurality of sets of adaptive loop filters, per block of the current slice in which adaptive loop filtering is used, wherein the blocks of the current slice are coding tree units, CTUs, of the current slice, wherein each respective set of adaptive loop filters includes a previous adaptive loop filter from one or more previous slices, and wherein the respective syntax element is an index to a list including the plurality of sets of adaptive loop filters; and adaptive loop filtering the blocks of the current slice in accordance with the respective sets of adaptive loop filters. determining a plurality of sets of adaptive loop filters for a current slice; determining a respective set of adaptive loop filters, from among the plurality of sets of adaptive loop filters, per block of the current slice for blocks in which adaptive loop filtering is used, wherein determining the respective set of adaptive loop filters comprises: coding a respective syntax element indicating the respective set of adaptive loop filters, from among the plurality of sets of adaptive loop filters, per block of the current slice in which adaptive loop filtering is used, wherein the blocks of the current slice are coding tree units, CTUs, of the current slice, wherein each respective set of adaptive loop filters includes a previous adaptive loop filter from one or more previous slices, and wherein the respective syntax element is an index to a list including the plurality of sets of adaptive loop filters; and adaptive loop filtering the blocks of the current slice in accordance with the respective sets of adaptive loop filters. coding a respective syntax element indicating the respective set of adaptive loop filters, from among the plurality of sets of adaptive loop filters, per block of the current slice in which adaptive loop filtering is used, wherein the blocks of the current slice are coding tree units, CTUs, of the current slice, wherein each respective set of adaptive loop filters includes a previous adaptive loop filter from one or more previous slices, and wherein the respective syntax element is an index to a list including the plurality of sets of adaptive loop filters; and adaptive loop filtering the blocks of the current slice in accordance with the respective sets of adaptive loop filters.
A hand lever for a window or a door, wherein the hand lever comprises a pivoted handle part and a fastening device at the casement or frame, the handle part can be coupled with a connecting rod drive, and a locking device operative between the handle part and the fastening device is provided, wherein the locking device, in its activated state, prevents a rotary movement of the handle part relative to the fastening device , the locking device has an actuator , which can be activated by means of electrical energy, and the locking device is connected with a control device , wherein the control device comprises a transmitting device, which communicates with a possible control center, wherein the control center communicates with each control device , wherein the control device is connected with sensors , and wherein the transmitting device permits transmission of the data of the sensors and enables receipt of activation and deactivation commands for the actuator of the control device and at least one sensor determines the rotational position of the handle part relative to the fastening device , characterized in that , a slidable locking sleeve is operative between the handle part and the fastening device in its locking position, which sleeve interacts with the actuator . wherein the control device is connected with sensors , and wherein the transmitting device permits transmission of the data of the sensors and enables receipt of activation and deactivation commands for the actuator of the control device and at least one sensor determines the rotational position of the handle part relative to the fastening device , characterized in that , a slidable locking sleeve is operative between the handle part and the fastening device in its locking position, which sleeve interacts with the actuator .
Method of operating a user device configured for performing uplink data channel transmission via an uplink data channel beam pair that includes a user device transmit beam and a base station receive beam, and performing sounding reference signal transmission via a sounding reference signal beam pair that includes a user device transmit beam and a base station receive beam, the method comprising: - receiving , by the user device (131, ..., 135) from a base station , a control information indicating that an uplink data channel power control parameter set for an uplink data channel beam should be used to adjust a sounding reference signal transmission power, said uplink data channel beam being the user device transmit beam included in the uplink data channel beam pair; - determining, by the user device (131, ..., 135) based on the received control information, a particular uplink data channel power control parameter set to adjust the sounding reference signal transmission power; - adjusting , by the user device (131, ..., 135) based on the determined particular uplink data channel power control parameter set, the sounding reference signal transmission power for a sounding reference signal beam, said sounding reference signal beam being the user device transmit beam included in the sounding reference signal beam pair, wherein the sounding reference signal beam matches the uplink data channel beam; and - transmitting , via a sounding reference signal resource and the sounding reference signal beam, by the user device (131, ..., 135), a sounding reference signal by the adjusted sounding reference signal transmission power. - receiving , by the user device (131, ..., 135) from a base station , a control information indicating that an uplink data channel power control parameter set for an uplink data channel beam should be used to adjust a sounding reference signal transmission power, said uplink data channel beam being the user device transmit beam included in the uplink data channel beam pair; - determining, by the user device (131, ..., 135) based on the received control information, a particular uplink data channel power control parameter set to adjust the sounding reference signal transmission power; - adjusting , by the user device (131, ..., 135) based on the determined particular uplink data channel power control parameter set, the sounding reference signal transmission power for a sounding reference signal beam, said sounding reference signal beam being the user device transmit beam included in the sounding reference signal beam pair, wherein the sounding reference signal beam matches the uplink data channel beam; and - transmitting , via a sounding reference signal resource and the sounding reference signal beam, by the user device (131, ..., 135), a sounding reference signal by the adjusted sounding reference signal transmission power.