mhurhangee/patent-ind-claim-en huggingface dataset:
A wind turbine rotor blade load emulator arrangement comprising - a support unit constructed to support a rotor blade during a fatigue test procedure when the root end of the rotor blade is mounted to the support unit ; - an exciter configured to effect cyclic deflection of the rotor blade during a fatigue test procedure; - a number of load emulator fittings , wherein a load emulator fitting is realised for attaching to the rotor blade ; which load emulator arrangement is characterized by - a stiffness augmentation assembly for mounting to the rotor blade over a mounting length , which stiffness augmentation assembly is realised to increase the stiffness of the rotor blade in the mounting length , and wherein the stiffness augmentation assembly comprises a first end fitting mounted at a first position on the rotor blade ; a second end fitting mounted at a second position on the rotor blade , wherein the distance between the end fittings comprises 2% - 30% of the rotor blade length ; and a tensile element extending between the end fittings . - a support unit constructed to support a rotor blade during a fatigue test procedure when the root end of the rotor blade is mounted to the support unit ; - an exciter configured to effect cyclic deflection of the rotor blade during a fatigue test procedure; - a number of load emulator fittings , wherein a load emulator fitting is realised for attaching to the rotor blade ; - a stiffness augmentation assembly for mounting to the rotor blade over a mounting length , which stiffness augmentation assembly is realised to increase the stiffness of the rotor blade in the mounting length , and wherein the stiffness augmentation assembly comprises a first end fitting mounted at a first position on the rotor blade ; a second end fitting mounted at a second position on the rotor blade , wherein the distance between the end fittings comprises 2% - 30% of the rotor blade length ; and a tensile element extending between the end fittings .
A composite separator for a lithium-ion battery, comprising a polyolefin substrate and a coating layer formed on a surface of the polyolefin substrate, the coating layer comprising a binder and inorganic particles, wherein a hydrogen bond is formed between the binder and the inorganic particles, wherein the binder comprises an aqueous binder containing -CO- or -CN functional group, and the inorganic particles contain -OH functional group, characterized in that , a particle size D100 of the inorganic particles is 1μm <D100<15μm.
A power backfeed control method, applied to a converter, wherein one end of the converter is connected to at least one photovoltaic string, and another end of the converter is connected to a power grid; each photovoltaic string corresponds to one string number; and the power backfeed control method comprises: controlling (S11), according to a backfeed instruction, the converter to enter a backfeed mode, wherein in the backfeed mode, the converter can transmit energy of the power grid to a selected photovoltaic string with a corresponding number; determining (S12) a backfeed control voltage according to the backfeed instruction, and determining a voltage limit in a process of determining the backfeed control voltage; determining (S13) an actual backfeed voltage based on the backfeed control voltage and the voltage limit, wherein the actual backfeed voltage is a smaller one of the backfeed control voltage and the voltage limit; and controlling (S14) the converter to output the actual backfeed voltage to the selected photovoltaic string, to enable the selected photovoltaic string to generate an electroluminescent effect. controlling (S11), according to a backfeed instruction, the converter to enter a backfeed mode, wherein in the backfeed mode, the converter can transmit energy of the power grid to a selected photovoltaic string with a corresponding number; determining (S12) a backfeed control voltage according to the backfeed instruction, and determining a voltage limit in a process of determining the backfeed control voltage; determining (S13) an actual backfeed voltage based on the backfeed control voltage and the voltage limit, wherein the actual backfeed voltage is a smaller one of the backfeed control voltage and the voltage limit; and controlling (S14) the converter to output the actual backfeed voltage to the selected photovoltaic string, to enable the selected photovoltaic string to generate an electroluminescent effect.
An apparatus comprising: a cuff configured to be worn around an upper arm of a user ; a first acoustic sensor (S1) attached to the external wall of the cuff and having a sensitive side oriented away from the axis of the cuff, such that in use the first sensor (S1) is placed against the side of the user's chest, so as to receive sounds through the side of the user's chest; and a second acoustic sensor (S2) configured to be used in conjunction with the first sensor and movable with regard to the cuff, such that in use it is placed at a front side of the user's chest so as to receive sounds through the front side of the user's chest. a cuff configured to be worn around an upper arm of a user ; a first acoustic sensor (S1) attached to the external wall of the cuff and having a sensitive side oriented away from the axis of the cuff, such that in use the first sensor (S1) is placed against the side of the user's chest, so as to receive sounds through the side of the user's chest; and a second acoustic sensor (S2) configured to be used in conjunction with the first sensor and movable with regard to the cuff, such that in use it is placed at a front side of the user's chest so as to receive sounds through the front side of the user's chest.
A circuit for driving a synchronous rectifier , the synchronous rectifier having a plurality of transistors (T1, T2, T3, T4), the circuit comprising: a controller configured to detect at least one operating condition of the synchronous rectifier; a first drive circuit configured to modify a first voltage level (V gate1 ) applied to turn on at least one first transistor (T1, T3) of the plurality of transistors, based upon the at least one operating condition, the at least one first transistor being at least one first NMOS transistor; and a second drive circuit configured to modify a second voltage level (V gate2 ) applied to turn on at least one second transistor (T2, T4) of the plurality of transistors, based upon the at least one operating condition, the at least one second transistor being at least one PMOS transistor, wherein the modifying of the voltage levels is performed to reduce a sum of switching losses and conduction losses of the synchronous rectifier. a controller configured to detect at least one operating condition of the synchronous rectifier; a first drive circuit configured to modify a first voltage level (V gate1 ) applied to turn on at least one first transistor (T1, T3) of the plurality of transistors, based upon the at least one operating condition, the at least one first transistor being at least one first NMOS transistor; and a second drive circuit configured to modify a second voltage level (V gate2 ) applied to turn on at least one second transistor (T2, T4) of the plurality of transistors, based upon the at least one operating condition, the at least one second transistor being at least one PMOS transistor,
A glazing unit with a solar control property comprising at least one glass substrate provided with a stack of layers, said glazing unit being characterized in that the stack comprises at least two layers essentially consisting of optionally nitrided nickel, said stack containing no layers of precious metals, in particular of silver or of gold, wherein each of said metal layers is separated in the stack from the following one by an intermediate layer of a dielectric material or by a set of intermediate layers made of dielectric material, the thickness of the intermediate layer or the thickness of the set of intermediate layers being between 5 and 45 nm.
A method for wireless communication by a user equipment, UE, comprising: receiving control information in a control channel of a transmission time interval, TTI; processing the control information to determine a subset of a plurality of symbols of the TTI allocated to the UE, a symbol length or duration of the subset of the plurality of symbols allocated to the UE, symbol level scheduling for the subset of the plurality of symbols within the TTI, and whether symbols of the subset are contiguous or discontiguous within the TTI; receiving the subset of the plurality of symbols based at least in part on the control information; measuring a pilot sequence communicated between at least two symbols of the plurality of symbols; and decoding at least a subset of a plurality of beamformed transmissions based at least in the measured pilot sequence. receiving control information in a control channel of a transmission time interval, TTI; processing the control information to determine a subset of a plurality of symbols of the TTI allocated to the UE, a symbol length or duration of the subset of the plurality of symbols allocated to the UE, symbol level scheduling for the subset of the plurality of symbols within the TTI, and whether symbols of the subset are contiguous or discontiguous within the TTI; receiving the subset of the plurality of symbols based at least in part on the control information; measuring a pilot sequence communicated between at least two symbols of the plurality of symbols; and decoding at least a subset of a plurality of beamformed transmissions based at least in the measured pilot sequence.
An assembly for dampening vibration movement between a cylinder and a concentric duct, the assembly comprising: a duct ; a cylinder positioned radially inside the duct; a damper attached to the duct, the damper including: a housing attached to the duct; a contact member positioned at least partially inside the housing and having a contact surface adjacent an outer surface of the cylinder; and a cap threadedly engaged with the housing for applying a load on the contact member in a direction toward the cylinder; characterized in that the contact member is a roller . a duct ; a cylinder positioned radially inside the duct; a damper attached to the duct, the damper including: a housing attached to the duct; a contact member positioned at least partially inside the housing and having a contact surface adjacent an outer surface of the cylinder; and a housing attached to the duct; a contact member positioned at least partially inside the housing and having a contact surface adjacent an outer surface of the cylinder; and
A method of handling flat blanks from a stack , which stack is comprising a plurality of flat blanks , the method comprising at least the following steps: - carrying out an offset movement for a blank , which blank is) in each case arranged on the top of the stack (9, the blank ) in each case arranged on the top of the stack being moved relative to further adjacent blanks , so that a front edge of the blank arranged on the top of the stack projects beyond the stack at the end of the offset movement; - carrying out a centring movement in time after the end of the offset movement, wherein the front edge of the blank arranged on the top of the stack , which front edge is projecting beyond the stack , is transferred into a specific orientation and/or position and wherein in time after the end of the centring movement the blank arranged on the top of the stack continues to rest on the stack . - carrying out an offset movement for a blank , which blank is) in each case arranged on the top of the stack (9, the blank ) in each case arranged on the top of the stack being moved relative to further adjacent blanks , so that a front edge of the blank arranged on the top of the stack projects beyond the stack at the end of the offset movement; - carrying out a centring movement in time after the end of the offset movement, wherein the front edge of the blank arranged on the top of the stack , which front edge is projecting beyond the stack , is transferred into a specific orientation and/or position and wherein in time after the end of the centring movement the blank arranged on the top of the stack continues to rest on the stack .
Electronic payment terminal comprising a light guide to guide the light from at least one light source internal to said electronic payment terminal to the exterior of said electronic payment terminal, said light guide being integrated with a contactless payment module integrated with said electronic payment terminal, said electronic payment terminal being characterized in that said light guide further comprises at least one shock-absorbing pad extending beyond the external surface of said electronic payment terminal.
A controller for a stepped automatic transmission , the stepped automatic transmission being configured to establish a plurality of speed positions by selectively engaging a plurality of frictional engagement elements (C1 to C4, B1, B2), the controller being configured to execute shift control by controlling torque capacities of the frictional engagement elements based on corresponding target torque capacities at the time of a power-on upshift, the controller characterized by comprising: an electronic control unit configured to: i) execute torque phase control for controlling the torque capacities of the frictional engagement elements, ii) determine whether an inertia phase has started while the torque phase control is still executing, iii) when an inertia phase has started while the torque phase control is being executed, end the torque phase control and start the inertia phase control, iv) in response to ending the torque phase control, correct the target torque capacity of an engaging frictional engagement element in the inertia phase control based on a difference between the actual torque capacity of the engaging frictional engagement element and the target torque capacity of the engaging frictional engagement element. i) execute torque phase control for controlling the torque capacities of the frictional engagement elements, ii) determine whether an inertia phase has started while the torque phase control is still executing, iii) when an inertia phase has started while the torque phase control is being executed, end the torque phase control and start the inertia phase control, iv) in response to ending the torque phase control, correct the target torque capacity of an engaging frictional engagement element in the inertia phase control based on a difference between the actual torque capacity of the engaging frictional engagement element and the target torque capacity of the engaging frictional engagement element.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, BS, by the UE, configuration information related to a measurement gap comprising a time period during which the UE does not perform an uplink transmission and a downlink reception; identifying a first subframe included in the measurement gap based on the configuration information; starting, by the UE, measurements corresponding to the measurement gap at an ending boundary of a subframe occurring immediately before the identified first subframe included in the measurement gap ; and in case that the UE is in a Time Division Duplexing, TDD, mode, blocking an uplink transmission in a subframe immediately after the measurement gap, in response to identifying that the subframe occurring immediately before the identified first subframe included in the measurement gap is a downlink subframe. receiving, from a base station, BS, by the UE, configuration information related to a measurement gap comprising a time period during which the UE does not perform an uplink transmission and a downlink reception; identifying a first subframe included in the measurement gap based on the configuration information; starting, by the UE, measurements corresponding to the measurement gap at an ending boundary of a subframe occurring immediately before the identified first subframe included in the measurement gap ; and in case that the UE is in a Time Division Duplexing, TDD, mode, blocking an uplink transmission in a subframe immediately after the measurement gap, in response to identifying that the subframe occurring immediately before the identified first subframe included in the measurement gap is a downlink subframe.
A data transmission method, wherein multi-stream aggregation base stations comprise a primary base station and a secondary base station that participate in multi-stream aggregation and the method further comprises: receiving , by the primary base station, offloading information sent by a wireless communications device, wherein the wireless communications device is the secondary base station or a terminal; and adjusting , by the primary base station according to the offloading information, offloading data that is allocated to the multi-stream aggregation base stations; wherein when the wireless communications device is the secondary base station, the offloading information comprises a sequence number of a packet data unit, PDU, sent by the secondary base station to the terminal, and is used by the primary base station to adjust the offloadig data that is allocated to the multi-stream aggregation base stations; or when the wireless communications device is the terminal, the offloading information is used by the primary base station to adjust the offloading data that is allocated to the multi-stream aggregation base stations. receiving , by the primary base station, offloading information sent by a wireless communications device, wherein the wireless communications device is the secondary base station or a terminal; and adjusting , by the primary base station according to the offloading information, offloading data that is allocated to the multi-stream aggregation base stations; wherein when the wireless communications device is the secondary base station, the offloading information comprises a sequence number of a packet data unit, PDU, sent by the secondary base station to the terminal, and is used by the primary base station to adjust the offloadig data that is allocated to the multi-stream aggregation base stations; or when the wireless communications device is the terminal, the offloading information is used by the primary base station to adjust the offloading data that is allocated to the multi-stream aggregation base stations.
A system for monitoring conveyor belts , the system comprising: a transmitter configured to direct terahertz radiation (T1) in a frequency range from 0.01 THz to 0.08 THz towards a conveyor belt ; a receiver configured to measure reflected signals (R1, R2) based on the terahertz radiation (T1); and circuitry configured to determine belt characteristics of the conveyor belt based on the measured reflected radiation (R1, R2). a transmitter configured to direct terahertz radiation (T1) in a frequency range from 0.01 THz to 0.08 THz towards a conveyor belt ; a receiver configured to measure reflected signals (R1, R2) based on the terahertz radiation (T1); and circuitry configured to determine belt characteristics of the conveyor belt based on the measured reflected radiation (R1, R2).
An actuating drive for moving a movably-supported furniture part , comprising: - at least one actuating arm movably-supported between a closed position and an open position for moving the movable furniture part , - a spring device for retracting the actuating arm into the closed position within a closing range lying immediately before the closed position, characterized in that the actuating drive includes a coupling device which decouples the spring device from the actuating arm in the closing range when the actuating arm is opened, and which couples the spring device to the actuating arm in the closing range when the actuating arm is closed, wherein the coupling device includes at least one movably-supported locking element movably supported between a locking position and an unlocking position, wherein the locking element , in the locking position, couples the spring device to the actuating arm , and wherein the locking element , upon overpressing the movable furniture part from its closed position into an overpressing position lying behind the closed position, is movable into the unlocking position, whereby the actuating arm can be decoupled from the force of the spring device . - at least one actuating arm movably-supported between a closed position and an open position for moving the movable furniture part , - a spring device for retracting the actuating arm into the closed position within a closing range lying immediately before the closed position,
A solid lubricant comprising carrier particles, in which a lipophilic lubricating component that is at least one of an oil, an extreme-pressure agent, a soap, and a wax is trapped between particles of and/or layers of at least one layered clay mineral selected from the group consisting of natural products and synthetic products of a smectite group, a vermiculite group, a mica group, a brittle mica group, a pyrophyllite group, and a kaolinite group, and wherein the layered clay mineral is 30 μm or less in average particle size, wherein the average particle size is measured by a laser diffraction method on a volumetric basis. wherein the layered clay mineral is 30 μm or less in average particle size, wherein the average particle size is measured by a laser diffraction method on a volumetric basis.
Carriage having a chassis , a body , a drawbar and two pairs (P 1 , P 2 ) of wheels arranged on the chassis , which are each spaced apart from one another by a track width (S 1 , S 2 ), characterized in that the track widths (S 1 , S 2 ) of the wheels are able to be reduced for transporting the carriage and are settable to different sizes, and in that the chassis is configured in a multipart, in particular two-part, manner and in a telescopic manner in the direction of travel (F).