mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preventing mis-adaptation in a feed-forward road noise cancellation, RNC, system, the method comprising: adjusting an adaptive transfer characteristic of a controllable filter based on a noise signal received from a sensor, an error signal received from a microphone located in a cabin of a vehicle , and an adaptation parameter; generating an anti-noise signal based in part on the adaptive transfer characteristic, the anti-noise signal to be radiated by a speaker as anti-noise within the cabin of the vehicle ; receiving at least one sensor signal; detecting a non-stationary event based on signal parameters sampled from a frame of the at least one sensor signal; and modifying the adaptation parameter for a duration of the frame in response to detecting the non-stationary event, wherein the controllable filter is controlled according to a least mean square, LMS, algorithm, wherein modifying the adaptation parameter includes reducing a step size of the LMS algorithm, wherein detecting a non-stationary event comprises analyzing sensor data within the frame by calculating the fast Fourier transform, FFT, of the frame, and wherein the sensor is a vibration sensor and the at least one sensor signal is the noise signal. adjusting an adaptive transfer characteristic of a controllable filter based on a noise signal received from a sensor, an error signal received from a microphone located in a cabin of a vehicle , and an adaptation parameter; generating an anti-noise signal based in part on the adaptive transfer characteristic, the anti-noise signal to be radiated by a speaker as anti-noise within the cabin of the vehicle ; receiving at least one sensor signal; detecting a non-stationary event based on signal parameters sampled from a frame of the at least one sensor signal; and modifying the adaptation parameter for a duration of the frame in response to detecting the non-stationary event, wherein the controllable filter is controlled according to a least mean square, LMS, algorithm, wherein modifying the adaptation parameter includes reducing a step size of the LMS algorithm, wherein detecting a non-stationary event comprises analyzing sensor data within the frame by calculating the fast Fourier transform, FFT, of the frame, and wherein the sensor is a vibration sensor and the at least one sensor signal is the noise signal.
A fluidized bed boiler with a fluidized bed heat exchanger , the heat exchanger comprising a front wall adjacent the fluidized bed boiler, a rear wall opposite to the front wall and two side walls , the walls being formed as water tube panels, an inlet opening arranged in a first section of an upper portion of the heat exchanger for introducing hot particles from the fluidized bed boiler to the heat exchanger, heat exchange surfaces for recovering heat from the particles and an outlet opening arranged in a second section of the upper portion of the heat exchanger for returning cooled particles as an overflow from the heat exchanger back to the fluidized bed boiler, wherein the heat exchanger comprises a partition wall between the first and second sections of the upper portion of the heat exchanger, wherein the partition wall is downwards slanted so as to guide particles into the heat exchanger further away from the furnace, and characterized in that the partition wall extends from the front wall to a portion of the heat exchanger which is spaced apart from the front wall and the rear wall by 40-60 % of the distance between the front wall and the rear wall, the partition wall is formed by bending water tubes from at least one side wall of the heat exchanger as a first horizontal section extending towards a center section of the partition wall and as a second horizontal section from the center section of the partition wall back to the side wall.
A method for processing processor executable instructions, comprising: selecting, by a processor, a group of instructions from an instruction stream; extracting, by the processor, a respective chaining bit from each instruction in the selected group of instructions; reassembling, by the processor, the extracted chaining bits to form a combination of chaining bits, wherein the combination of chaining bits is to represent a plurality of instruction issue types for the selected group of instructions, and wherein the plurality of instruction issue types comprise an intra-group parallel execution and an inter-group parallel execution; decoding, by the processor, the combination of chaining bits to determine a first instruction issue type of the plurality of instruction issue types; identifying, by the processor based on the first instruction issue type, zero or more instruction stream dependencies among the selected group of instructions without fully decoding any of the selected group of instructions; and outputting, by the processor, control signals to control execution of the selected group of instructions at one or more pipelines stages of the processor based on the identified zero or more instruction stream dependencies. selecting, by a processor, a group of instructions from an instruction stream; extracting, by the processor, a respective chaining bit from each instruction in the selected group of instructions; reassembling, by the processor, the extracted chaining bits to form a combination of chaining bits, wherein the combination of chaining bits is to represent a plurality of instruction issue types for the selected group of instructions, and wherein the plurality of instruction issue types comprise an intra-group parallel execution and an inter-group parallel execution; decoding, by the processor, the combination of chaining bits to determine a first instruction issue type of the plurality of instruction issue types; identifying, by the processor based on the first instruction issue type, zero or more instruction stream dependencies among the selected group of instructions without fully decoding any of the selected group of instructions; and outputting, by the processor, control signals to control execution of the selected group of instructions at one or more pipelines stages of the processor based on the identified zero or more instruction stream dependencies.
Internal combustion engine comprising, on the one hand, a cylinder head having at least one camshaft and a plurality of bearing caps capable of straddling said camshaft, and, on the other hand, a cylinder head cover extending longitudinally so as to cover said cylinder head and an air intake manifold extending along said cylinder head cover ; characterized in that said plurality of bearing caps , said air intake manifold and said cylinder head cover are formed as a one-piece casting.
A pressurizing method to cyclically modify pressure in a first, second and third containers, the method comprising repeating the following steps in a cycle: a- supplying liquefied gas through a one way supply to the first pressurized container , the first pressurized container being at a first pressure, b- connect the first pressurized container to an evaporator to evaporate liquefied gas to produce a first fluid and increase pressure in the first pressurized container to a second pressure, c- connect the first pressurized container with a consumer connection via a channel of a heat exchanger, the first fluid raising its temperature as it flows through the channel , the second pressure being higher than a pressure in the consumer connection , d- connect the second pressurized container containing a second fluid with the third pressurized container via a counter current flow channel of the heat exchanger, the second fluid reducing its temperature as it flows through the counter current flow channel , the pressure in the second pressurized container being higher than the pressure in the third pressurized container , the second fluid passing through an expansion element between the counter flow exchanger and the third pressurized container , e- repeat the above steps using a circular permutation between the first, second and third containers, each container cycling through successive phases of being supplied with liquefied gas, evaporating liquefied gas, consumer connection and depressurisation. a- supplying liquefied gas through a one way supply to the first pressurized container , the first pressurized container being at a first pressure, b- connect the first pressurized container to an evaporator to evaporate liquefied gas to produce a first fluid and increase pressure in the first pressurized container to a second pressure, c- connect the first pressurized container with a consumer connection via a channel of a heat exchanger, the first fluid raising its temperature as it flows through the channel , the second pressure being higher than a pressure in the consumer connection , d- connect the second pressurized container containing a second fluid with the third pressurized container via a counter current flow channel of the heat exchanger, the second fluid reducing its temperature as it flows through the counter current flow channel , the pressure in the second pressurized container being higher than the pressure in the third pressurized container , the second fluid passing through an expansion element between the counter flow exchanger and the third pressurized container , e- repeat the above steps using a circular permutation between the first, second and third containers, each container cycling through successive phases of being supplied with liquefied gas, evaporating liquefied gas, consumer connection and depressurisation.
Work vehicle having a first pair of wheels mounted to a vehicle body via a fixed axle and a second pair of wheels mounted to said vehicle body via a pivotable axle , the vehicle comprising axle housings close to each wheel and an anti-rollover system comprising at least two load sensor means , wherein one sensor mean is mounted at the upper side and the other sensor mean is mounted at lower side of the axle housing of the first pair of wheels , to measure a downward force borne by the respective wheel, the load sensor means being operationally connected to a processor, wherein the processor is configured to send anti-rollover commands to the anti-rollover system, based on signals received from said at least two load sensor means, whereby the load sensor means comprise at least one strain gauge .
An antenna feeding network for a multi-radiator antenna, the antenna feeding network comprising at least two coaxial lines , wherein each coaxial line comprises an elongated central inner conductor and an elongated outer conductor surrounding the central inner conductor the antenna feeding network further comprising at least one electrical connector device configured to interconnect at least a first inner conductor and a second inner conductor of said central inner conductors, wherein the electrical connector device comprises at least one engaging portion , each being configured to engage with at least one corresponding surface portion (33; 33a-c) formed on the envelope surface of said first or second inner conductor, characterized in that said first or second inner conductor further comprises at least one recess (34a-c; 34d) in said envelope surface adjacent said at least one surface portion (33; 33a-c), and wherein each engaging portion has a longitudinal length in the lengthwise direction of the coaxial lines such that it extends at least partly over said at least one recess (34a-c; 34d) when said engaging portion engages with said at least one corresponding surface portion (33; 33a-c).
Rotor for an electric motor comprising the rotor and a stator, the rotor comprising: - at least one support member , - a plurality of magnetized magnet tiles attached to and covering one outer surface of the at least one support member , the said plurality of magnetized magnet tiles being adjacent, when in use, to an air gap between the rotor and the stator, - the said outer surface of said support member comprises at least one male portion, - each of the said plurality of magnetized magnet tiles comprises at least one female portion, and the at least one male portion is engaged into the at least one female portion, thereby providing a positioning of each of the said plurality of magnetized magnet tiles to the at least one support member , at least during a step of attachment of each of the said plurality of magnetized magnet tiles to the at least one support member , characterized: in that the support member has an attachment portion for attaching the plurality of magnetized magnet tiles with a polygonal cross section, the polygonal cross section having an even number of sides, corresponding to a number of poles of the electric motor, the at least one male portion comprising an edge between two adjacent faces of the polygonal attachment portion, and in that the rotor has an external diameter equal or smaller than 27 millimeters, and preferably equal or smaller than 20 millimeters. - at least one support member , - a plurality of magnetized magnet tiles attached to and covering one outer surface of the at least one support member , the said plurality of magnetized magnet tiles being adjacent, when in use, to an air gap between the rotor and the stator, - the said outer surface of said support member comprises at least one male portion, - each of the said plurality of magnetized magnet tiles comprises at least one female portion, in that the support member has an attachment portion for attaching the plurality of magnetized magnet tiles with a polygonal cross section, the polygonal cross section having an even number of sides, corresponding to a number of poles of the electric motor, the at least one male portion comprising an edge between two adjacent faces of the polygonal attachment portion, and in that the rotor has an external diameter equal or smaller than 27 millimeters, and preferably equal or smaller than 20 millimeters.
A cutter blade for a lawn mower , the cutter blade comprising an upper blade and a lower blade overlapped with each other in a thickness direction, wherein the upper blade includes an upper blade proximal part having a flat shape in a radial direction perpendicular to a blade rotation axis (a1), and a rising part which rises from the upper blade proximal part toward an upper outer end positioned radially outside the upper blade proximal part and above the upper blade proximal part ; and the lower blade includes a lower blade proximal part having a flat shape in the radial direction, and a falling part which falls from the lower blade proximal part to a clipping part positioned radially outside the lower blade proximal part and below the lower blade proximal part , and wherein the upper blade proximal part is overlapped on the lower blade proximal part . characterized in that a portion where the rising part starts to rise from the upper blade proximal part is positioned radially outside a portion where the falling part starts to fall from the lower blade proximal part .
Apparatus for adjusting the angle of attack of a rotor blade of a wind turbine with a horizontal rotor axis of rotation, having a flexible envelope drive strand which is able to be moved by a drive wheel and via which the rotor blade is able to be rotated in opposite directions about its longitudinal axis , wherein the envelope drive strand bears against an end piece of the rotor blade and is fixed at least tangentially at at least one connecting point on the circumference of the end piece, and the envelope drive strand bears against the drive wheel by way of a side facing away from the end piece, characterized in that the end piece of the rotor blade is formed by a rotary-bearing ring , in that , between the drive wheel and a deflection roller , the envelope drive strand exclusively bears against the rotary-bearing ring , while partially wrapping around the rotary-bearing ring , and in that the envelope drive strand is guided from the deflection roller back to the drive wheel via at least one further deflection roller (6, 6', 6", 6′′′), which keeps the envelope drive strand radially spaced apart from the rotary-bearing ring , and is deflected towards the first deflection roller by the drive wheel . in that the end piece of the rotor blade is formed by a rotary-bearing ring , in that , between the drive wheel and a deflection roller , the envelope drive strand exclusively bears against the rotary-bearing ring , while partially wrapping around the rotary-bearing ring , and in that the envelope drive strand is guided from the deflection roller back to the drive wheel via at least one further deflection roller (6, 6', 6", 6′′′), which keeps the envelope drive strand radially spaced apart from the rotary-bearing ring , and is deflected towards the first deflection roller by the drive wheel .
A high-voltage switch, comprising: a switching device, the switching device being a normally-off n-channel device having a gate terminal , a drain terminal, and a source terminal ; a chain of transistors, the transistors being normally-on n-channel JFETs each having a gate terminal, a drain terminal, and a source terminal, wherein the transistors are connected in series drain-to-source, wherein the source of the first transistor in the chain is connected to the drain of the switching device; for each transistor in the chain from the second transistor in the chain to the penultimate transistor in the chain, there is a clamping device associated with the transistor, wherein an anode of the clamping device is connected to the source of the transistor, and a cathode of the clamping device is connected to the gate of the next transistor in the chain; an additional clamping device, where an anode of the additional clamping device is connected to the source of the first transistor in the chain and a cathode of the additional clamping device is connected to the gate of the second transistor in the chain, where the gate of the first transistor in the chain is connected to the source of the switching device; and for each transistor in the chain from the second transistor in the chain to the last transistor in the chain, a load circuit comprising a resistor, the load circuit being connected between the drain of the transistor and the gate of the transistor. a switching device, the switching device being a normally-off n-channel device having a gate terminal , a drain terminal, and a source terminal ; a chain of transistors, the transistors being normally-on n-channel JFETs each having a gate terminal, a drain terminal, and a source terminal, wherein the transistors are connected in series drain-to-source, wherein the source of the first transistor in the chain is connected to the drain of the switching device; for each transistor in the chain from the second transistor in the chain to the penultimate transistor in the chain, there is a clamping device associated with the transistor, wherein an anode of the clamping device is connected to the source of the transistor, and a cathode of the clamping device is connected to the gate of the next transistor in the chain; an additional clamping device, where an anode of the additional clamping device is connected to the source of the first transistor in the chain and a cathode of the additional clamping device is connected to the gate of the second transistor in the chain, where the gate of the first transistor in the chain is connected to the source of the switching device; and for each transistor in the chain from the second transistor in the chain to the last transistor in the chain, a load circuit comprising a resistor, the load circuit being connected between the drain of the transistor and the gate of the transistor.
An isolated antibody or antigen-binding fragment thereof comprising a binding domain comprising a heavy chain variable region (VH) and a light chain variable region (VL); wherein the VH comprises the amino acid sequence SEQ ID NO: 1, and wherein the VL comprises the amino acid sequence SEQ ID NO: 2.
A display substrate, which comprises a light emitting element disposed on a base substrate , and an encapsulation layer , a connection layer , a light extraction layer , a polarization conversion layer and a polarization layer which are stacked sequentially at a light exiting side of the light emitting element , wherein the light extraction layer is configured to convert at least a portion of light which is emitted by the light emitting element and incident onto the light extraction layer into circularly polarized light with a set rotational direction to pass through the light extraction layer ; the polarization conversion layer is configured to convert the circularly polarized light passing through the light extraction layer into linearly polarized light, wherein a polarization direction of the linearly polarized light is parallel to a direction of a light transmission axis of the polarization layer ; and the connection layer is configured to bond the light extraction layer to the encapsulation layer , a thickness of the connection layer is greater than 3 times of a thickness of the light extraction layer , and characterized in that a difference between a refractive index of the connection layer and a refractive index of a film layer of the encapsulation layer close to the connection layer is greater than 0.25. wherein the light extraction layer is configured to convert at least a portion of light which is emitted by the light emitting element and incident onto the light extraction layer into circularly polarized light with a set rotational direction to pass through the light extraction layer ; the polarization conversion layer is configured to convert the circularly polarized light passing through the light extraction layer into linearly polarized light, wherein a polarization direction of the linearly polarized light is parallel to a direction of a light transmission axis of the polarization layer ; and the connection layer is configured to bond the light extraction layer to the encapsulation layer , a thickness of the connection layer is greater than 3 times of a thickness of the light extraction layer , and characterized in that a difference between a refractive index of the connection layer and a refractive index of a film layer of the encapsulation layer close to the connection layer is greater than 0.25.
Damping and spring arrangement having two end pieces and having a wire or cable arrangement connecting the end pieces to each other and comprising at least one wire or cable piece , wherein the end pieces on their lateral surfaces which face away from each other each are provided with at least one groove , wherein the at least one wire or cable piece in each case is inserted into a groove of the one end piece and into a groove of the other end piece , wherein the end pieces in each case are designed as elongate strip elements, each provided on their lateral surfaces which face away from each other with a plurality of grooves extending transversely to the longitudinal direction, wherein the at least one wire or cable piece extends, alternatingly, through a groove of the one end piece and then through a groove of the other end piece , characterized in that a groove depth of the grooves is in each case smaller than a diameter of the inserted wire or cable piece , and in that at least one bridge is formed on at least one lateral region of each groove , wherein the bridges arranged on at least one lateral region of the grooves are plastically deformed such that the bridges at least in part surround a section of the at least one wire or cable piece , which is inserted into the groove , in order to fix the wire or cable piece in the groove .
Arginase I, arginase II or arginine deiminase (ADI) for use in the treatment of an arginine-auxotrophic breast cancer, wherein the arginase I, arginase II or ADI is used in combination with doxorubicin or a doxorubicin analog selected from N-(5,5-Diacetoxypent-1-yl) doxorubicin , 4'-epidoxorubicin (epi-Dx), 4'-deoxy-doxorubicin (deoxy-Dx), 4'-O'methyldoxorubicin (OMe-Dx), or N-(trifluoroacetyl) doxorubicin (FDOX).