mhurhangee/patent-ind-claim-en huggingface dataset:
A movable element for a damping system comprising an absorbent mass designed to be positioned in a housing and comprising in the same area at least two adapted portions arranged on the periphery of the absorbent mass and in which respective elastic elements are arranged which are designed to bear against an internal wall of the housing , wherein the movable element has an axial form, wherein the adapted portions are formed by spaced-apart annular grooves arranged radially on the periphery of the absorbent mass, wherein a space between two elements (3a, 3b; 3c, 3d; 3c, 3c; 3d, 3d) is not more than three times a cross-sectional dimension or diameter of one element, characterized in that said elastic elements have optimum damping intrinsic properties in different variation ranges of at least one parameter.
A sandwich core comprising a fiber material as core material which withstands a higher load input in a main load direction than in another load direction, the main load direction of the sandwich core being perpendicular to a panel plane defined by two of the in-plane edges of a sandwich core having the greatest linear extension, characterized in that the fiber content of the core material consists of lignocellulosic fibers present in a homogeneous structure with at least 80 % of said fibers deviating by an angle of less than 10 % from the perpendicular to the panel plane.
A USB device for secure data loading to a system component, such as of an aircraft, the USB device being a USB stick configured as a System on a Chip, SoC, and being operable in a mass storage mode and in a non-mass storage mode, wherein, in the mass storage mode, the USB device is detectable as a USB mass storage device when connected to the system component or to a host computer and wherein, in the non-mass storage mode, the USB device is not detectable as a USB mass storage device, the USB device initially operating in the non-mass storage mode upon startup and comprising: a storage for storing data to be loaded to the system component; a processor and a memory , the memory containing instructions executable by the processor such that the USB device is operable to: perform (S206) a security check on the data to be loaded to the system component; and switch (S208), upon the security check, from the non-mass storage mode to the mass storage mode, the USB device thereby becoming detectable as a USB mass storage device by the system component or the host computer to provide the data for loading to the system component. a storage for storing data to be loaded to the system component; a processor and a memory , the memory containing instructions executable by the processor such that the USB device is operable to: perform (S206) a security check on the data to be loaded to the system component; and switch (S208), upon the security check, from the non-mass storage mode to the mass storage mode, the USB device thereby becoming detectable as a USB mass storage device by the system component or the host computer to provide the data for loading to the system component. perform (S206) a security check on the data to be loaded to the system component; and switch (S208), upon the security check, from the non-mass storage mode to the mass storage mode, the USB device thereby becoming detectable as a USB mass storage device by the system component or the host computer to provide the data for loading to the system component.
A system for controlling the operation of a wind turbine farm comprising a plurality of wind turbines and a remote control unit configured to communicate with said wind turbines and at least one database , the at least one database is configured to store at least ambient data retrieved from at least one ambient sensor configured to measure at least one ambient parameter, wherein each of said wind turbines comprises at least two wind turbine blades mounted to a hub which is further rotatably connected to a drive train , the remote control unit is configured to identify at least one upwind wind turbine and at least one downwind wind turbine amongst said wind turbines based on a detected wind direction , the remote control unit is configured to determine a first power output of the at least one upwind wind turbine and a second power output of the at least one downwind wind turbine, wherein the at least one upwind wind turbine is selected amongst a first group of wind turbines located upwind relative to the detected wind direction , the at least one downwind wind turbine is selected amongst at least a second group of wind turbines located downwind relative to the first group of wind turbines , and the remote control unit is further configured to determine a reduced operating level of the at least one upwind wind turbine so that, when operated according to this reduced operating level, the at least one upwind and downwind wind turbines combined increase the overall power production of the wind turbine farm, characterised in that the remote control unit is further configured to analyse the first power output and the second power output to determine a first correlation between the first power output and the second power output by statistical analysis, wherein the first correlation is indicative of an added amount of power produced by the at least one downwind wind turbine relative to a reduced amount of power produced by the at least one upwind wind turbine, and the reduced operating level of the at least one upwind wind turbine is determined based on said first correlation.
A thermoelectric generator comprising a thermoelectric element including a ceramic material based on the formula (Ca 3-x Na x )Co 4 O 9-δ with 0.1 ≤ x ≤ 2.9 and 0 < δ ≤ 2, wherein the ceramic material is combined with a metal material so that the thermoelectric element forms a transverse thermoelectric element.
A method implemented in a wireless device characterized in that the wireless device is configured to operate in at least a first operational mode and a second operational mode within an overlapping time with respect to a first cell, wherein the first and second operational modes are for respective services, the method comprising: transitioning (S146) from a first radio link monitoring, RLM, state having first RLM signal quality targets to a second RLM state different from the first RLM state and having second RLM signal quality targets based at least in part on at least one rule, the first RLM state corresponding to one of the first and second operational modes and the second RLM state corresponding to both the first and second operational modes; and operating (S148) according to the second RLM state. transitioning (S146) from a first radio link monitoring, RLM, state having first RLM signal quality targets to a second RLM state different from the first RLM state and having second RLM signal quality targets based at least in part on at least one rule, the first RLM state corresponding to one of the first and second operational modes and the second RLM state corresponding to both the first and second operational modes; and operating (S148) according to the second RLM state.
Plastic angle valve for closing off or regulating the flow of liquids which has a valve main body with an input channel and an output channel , wherein both channels are placed at a right angle or at least at an approximately right angle to each other and open to an internal seat with a shut-off supported therein rotatable about an axis of rotation (d) perpendicularly or approximately perpendicularly to the output channel and sealed against the valve main body by means of a gasket and wherein the shut-off connects both channels with each other in an open position and separates both channels from each other in a blocking position, characterized in that the gasket has a radially outwards protruding elastomeric elevation that, in the blocking position, sealingly bears against the valve main body by fully surrounding the opening edge of the outlet channel that opens into the seat with respect to the opening axis (ö) of the opening edge and that the elastomeric elevation , when the shut-off rotates between the open position and the blocking position, can be guided over the opening edge of the outlet channel by being placed radially spaced inwards thereto.
A control system , comprising: a control apparatus , a driver , comprising an instruction position counter ; and a mechanism part , comprising a motor , a decelerator and a rotator , wherein the decelerator is a gear pair with the reduction ratio being N/M, the gear pair enabling the rotator to rotate for integer N turns relative to the motor rotating for integer M turns; wherein the control apparatus is configured to send pulses used to control rotation of the rotator to the driver , wherein the rotator is rotated by the motor according to a reduction ratio as prescribed of the decelerator in which the motor is driven by the driver using a pulse number of the pulse for indicating an instruction position of the rotator , the control system characterized in that the control apparatus comprises: a counting range determining part , configured to, according to a setting as allocated, determine a counting range of a counter for counting the pulse number, wherein the counter restores a counting value of the pulses to an initial value when the counting value reaches to the counting range, wherein the counting range determining part multiples a prescribed pulse number which is required to accomplish one turn of rotation of the motor by a reciprocal of the reduction ratio and a correction value to determine the counting range, wherein the correction value is equal to the integer N and the counting range is corresponding to the N turns of the rotator . a control apparatus , a driver , comprising an instruction position counter ; and a mechanism part , comprising a motor , a decelerator and a rotator , wherein the decelerator is a gear pair with the reduction ratio being N/M, the gear pair enabling the rotator to rotate for integer N turns relative to the motor rotating for integer M turns; wherein the control apparatus is configured to send pulses used to control rotation of the rotator to the driver , wherein the rotator is rotated by the motor according to a reduction ratio as prescribed of the decelerator in which the motor is driven by the driver using a pulse number of the pulse for indicating an instruction position of the rotator , the control system characterized in that the control apparatus comprises: a counting range determining part , configured to, according to a setting as allocated, determine a counting range of a counter for counting the pulse number, wherein the counter restores a counting value of the pulses to an initial value when the counting value reaches to the counting range, wherein the counting range determining part multiples a prescribed pulse number which is required to accomplish one turn of rotation of the motor by a reciprocal of the reduction ratio and a correction value to determine the counting range, wherein the correction value is equal to the integer N and the counting range is corresponding to the N turns of the rotator .
A process for the preparation of ω-nitrooxyC 3-10 alkane-1-ols, comprising the nitration of an α,ω-C 3-10 alkanediol with a nitration agent, optionally in the presence of a nitrite trapping agent, characterized in that the nitration agent is a mixture consisting of 50 to 75 wt.-% of nitric acid in water and wherein the nitric acid is used in an amount selected in the range from 3 to 8 mol equivalents based on the α,ω-C 3-10 alkanediol and wherein the nitration is carried out at a temperature selected in the range from 25-100 °C, preferably in the range from 25-90°C, most preferably in the range of 25-80°C.
A method of cancelling interference from a received signal having signal contributions from multiple users , the method comprising: partially decoding a first codeword obtained from the received signal and transmitted by a first user via a first signal ; characterised in that the method comprises: reconstructing the first signal based on the partial decoding of the first codeword; scaling the reconstructed first signal as a function of whether a cyclic redundancy check value computed for the first signal checks or fails, wherein scaling comprises scaling down the reconstructed first signal if the cyclic redundancy check value computed for the first signal fails, and scaling up the reconstructed first signal if the cyclic redundancy check value computed for the first signal checks; cancelling the reconstructed first signal from the received signal to yield a reduced-interference signal; and at least partially decoding a second codeword obtained from the reduced-interference signal and transmitted by the first user or a second user via the second signal ; wherein partially decoding the first codeword comprises: treating one or more unavailable coded bits of the first codeword as punctured bits; and decoding the first codeword based on the one or more punctured coded bits and estimates of the remaining coded bits. reconstructing the first signal based on the partial decoding of the first codeword; scaling the reconstructed first signal as a function of whether a cyclic redundancy check value computed for the first signal checks or fails, wherein scaling comprises scaling down the reconstructed first signal if the cyclic redundancy check value computed for the first signal fails, and scaling up the reconstructed first signal if the cyclic redundancy check value computed for the first signal checks; cancelling the reconstructed first signal from the received signal to yield a reduced-interference signal; and at least partially decoding a second codeword obtained from the reduced-interference signal and transmitted by the first user or a second user via the second signal ; wherein partially decoding the first codeword comprises: treating one or more unavailable coded bits of the first codeword as punctured bits; and decoding the first codeword based on the one or more punctured coded bits and estimates of the remaining coded bits.
An airbag module comprising an inflator , a diffusor , a module carrier for an airbag and the inflator mountable to a vehicle steering wheel, and a counter support adapted to be coupled to the module carrier , wherein the counter support includes a mounting device which is configured at least for mounting the diffusor , and the diffusor is configured on the counter support or is mounted on the mounting device , wherein a plurality of damping members is provided and the inflator is mounted on the damping members , characterized in that the diffusor is provided with the plurality of damping members and the damping members of the diffusor are injection-molded or vulcanized to the latter.
A method, implemented by a computer, for estimating the health of a fuel cell battery on board an operating vehicle and comprising a plurality of cells, said method comprising the following steps: - receiving a plurality of sets of groups of measurements conducted during a plurality of respective successive time intervals on board an operating vehicle, each group of measurements comprising at least one measurement of the voltage at the terminals of at least one cell of the fuel cell battery, a measurement of the current or of the current density passing through at least one cell of the fuel cell battery and a measurement of at least one physical magnitude from among the temperature, the air flow, the air pressure in at least one cell of the fuel cell battery; - for each set of groups of received measurements associated with a current time interval: • determining a distribution of the values of the pairs of measurements (voltage, current) or (voltage, current density); • computing at least one distance between said distribution and at least one distribution of reference values or between said distribution and at least one determined distribution for a time interval other than the current time interval; - determining an indicator of the health of the fuel cell battery on the basis of at least one computed distance. - receiving a plurality of sets of groups of measurements conducted during a plurality of respective successive time intervals on board an operating vehicle, each group of measurements comprising at least one measurement of the voltage at the terminals of at least one cell of the fuel cell battery, a measurement of the current or of the current density passing through at least one cell of the fuel cell battery and a measurement of at least one physical magnitude from among the temperature, the air flow, the air pressure in at least one cell of the fuel cell battery; - for each set of groups of received measurements associated with a current time interval: • determining a distribution of the values of the pairs of measurements (voltage, current) or (voltage, current density); • computing at least one distance between said distribution and at least one distribution of reference values or between said distribution and at least one determined distribution for a time interval other than the current time interval; • determining a distribution of the values of the pairs of measurements (voltage, current) or (voltage, current density); • computing at least one distance between said distribution and at least one distribution of reference values or between said distribution and at least one determined distribution for a time interval other than the current time interval; - determining an indicator of the health of the fuel cell battery on the basis of at least one computed distance.
Gold cluster (AuCs) or substances containing AuCs for use in a method of preventing and/or treating glaucoma, wherein the AuCs or substances containing AuCs comprise AuCs and ligand Y that coats AuCs externally, wherein the gold core diameter of the AuCs is smaller than 3 nm, wherein the ligand Y includes without limitation one or more of L(D)-cysteine and its derivatives, oligopeptides containing cysteine and their derivatives, and other compounds containing thiol, wherein: a) the L(D)-cysteine and its derivatives are selected from L(D)-cysteine, N-isobutyryl-L(D)-cysteine (L(D)-NIBC) or N-acetyl-L(D)-cysteine (L(D)-NAC); and b) the oligopeptides containing cysteine and their derivatives are selected from L-arginine-L-cysteine (RC), L-cysteine-L-arginine (CR), L-cysteine-L-histidine dipeptide (CH), L-histidine-L-cysteine dipeptide (HC), L-glutathione (GSH), L-lysine-L-cysteine-L-proline tripeptide (KCP), L-proline-L-cysteine-L-arginine tripeptide (PCR), glycine-L-cysteine-L-arginine tripeptide (GCR), glycine-L-serine-L-cysteine-L-arginine tetrapeptide (GSCR) or glycine-L-cysteine-L-serine-L-arginine tetrapeptide (GCSR). a) the L(D)-cysteine and its derivatives are selected from L(D)-cysteine, N-isobutyryl-L(D)-cysteine (L(D)-NIBC) or N-acetyl-L(D)-cysteine (L(D)-NAC); and b) the oligopeptides containing cysteine and their derivatives are selected from L-arginine-L-cysteine (RC), L-cysteine-L-arginine (CR), L-cysteine-L-histidine dipeptide (CH), L-histidine-L-cysteine dipeptide (HC), L-glutathione (GSH), L-lysine-L-cysteine-L-proline tripeptide (KCP), L-proline-L-cysteine-L-arginine tripeptide (PCR), glycine-L-cysteine-L-arginine tripeptide (GCR), glycine-L-serine-L-cysteine-L-arginine tetrapeptide (GSCR) or glycine-L-cysteine-L-serine-L-arginine tetrapeptide (GCSR).
An evaluation method for permeability of a porous membrane that is inserted between a first flow channel and a second flow channel , the evaluation method comprising: acquiring a change that occurs inside a liquid accommodated in the second flow channel as an evaluation indicator of permeability of the porous membrane in a case of supplying a liquid to the first flow channel while continuously changing a supply pressure.
Imaging optical system for a display device that can be fitted on the head of a user and generates an image, with an optical element , which comprises an entry surface (F1), and a spectacle lens , which comprises a coupling-out section , the imaging optical system is suitable for guiding the generated image fed to the optical element via the entry surface (F1) in the optical element , for coupling it from the latter into the spectacle lens , in which it is guided to the coupling-out section and coupled out via the coupling-out section to generate a virtual image, wherein the spectacle lens comprises a rear side and a front side , wherein the optical element comprises, in addition to the entry surface (F1), at least one reflecting surface (F2), on which the generated image is reflected for guiding in the optical element , wherein the optical element and the spectacle lens are formed together as a one-piece optical part, wherein the at least one reflecting surface (F2) and the entry surface (F1) are other surfaces than the rear side and the front side of the spectacle lens , and wherein the rear side is formed as plane or curved rear side and the front side is formed as plane or curved front side , characterized in that . that the entry surface is formed curved and is transmissive for coupling the generated image into the optical element and reflective for reflecting the generated image in the optical element . an optical element , which comprises an entry surface (F1), and a spectacle lens , which comprises a coupling-out section , the imaging optical system is suitable for guiding the generated image fed to the optical element via the entry surface (F1) in the optical element , for coupling it from the latter into the spectacle lens , in which it is guided to the coupling-out section and coupled out via the coupling-out section to generate a virtual image, wherein the spectacle lens comprises a rear side and a front side , wherein the optical element comprises, in addition to the entry surface (F1), at least one reflecting surface (F2), on which the generated image is reflected for guiding in the optical element , wherein the optical element and the spectacle lens are formed together as a one-piece optical part, wherein the at least one reflecting surface (F2) and the entry surface (F1) are other surfaces than the rear side and the front side of the spectacle lens , and wherein the rear side is formed as plane or curved rear side and the front side is formed as plane or curved front side , characterized in that . that the entry surface is formed curved and is transmissive for coupling the generated image into the optical element and reflective for reflecting the generated image in the optical element .