mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication at a distributed unit, DU, comprising: signaling , to a radio unit, RU, a maximum IQ data bitwidth for a downlink communication associated with a section identifier, ID; signaling , to the RU, a bitwidth parameter for the downlink communication per a physical resource block, PRB; receiving capability signaling from the RU prior to transmitting the downlink communication, wherein the capability signaling indicates either that the RU does not support the PRB bitwidth granularity or that the RU supports the PRB bitwidth granularity; and transmitting the downlink communication to the RU based on at least one of the maximum IQ data bitwidth or the bitwidth parameter for the PRB, wherein the downlink communication is transmitted based on the maximum IQ data bitwidth for the RU that does not support a per PRB bitwidth granularity and wherein the downlink communication is transmitted based on the bitwidth parameter for the PRB for the RU that supports a per PRB bitwidth granularity. signaling , to a radio unit, RU, a maximum IQ data bitwidth for a downlink communication associated with a section identifier, ID; signaling , to the RU, a bitwidth parameter for the downlink communication per a physical resource block, PRB; receiving capability signaling from the RU prior to transmitting the downlink communication, wherein the capability signaling indicates either that the RU does not support the PRB bitwidth granularity or that the RU supports the PRB bitwidth granularity; and transmitting the downlink communication to the RU based on at least one of the maximum IQ data bitwidth or the bitwidth parameter for the PRB, wherein the downlink communication is transmitted based on the maximum IQ data bitwidth for the RU that does not support a per PRB bitwidth granularity and wherein the downlink communication is transmitted based on the bitwidth parameter for the PRB for the RU that supports a per PRB bitwidth granularity.
A pneumatic tube sleeve having a sleeve tube , with two sleeve heads which are rigidly connected to the sleeve tube at both ends of the same, and with an insert which carries at least one object to be transported, e.g. a check rod made of steel, wherein the center of gravity of the insert together with the at least one object to be transported is situated outside of the longitudinal axis , wherein the insert in the pneumatic tube sleeve is rotatable about the longitudinal axis of the sleeve tube , characterized in that the insert includes two ball bearing rings , the outer shells of which are connected to the sleeve tube such that the insert in the pneumatic tube sleeve is freely rotatable about the longitudinal axis of sleeve tube against the sleeve tube .
An optical volume measurement device, comprising: a main body , comprising a working surface ; a pair of photographic lenses , disposed on the working surface , each of the photographic lenses comprising an image acquiring area extended forwardly therefrom and capturing images within the image acquiring area separately, wherein an resolution distance range is located in front of each photographic lens , and each photographic lens identifies images within the resolution distance range , and the pair of image acquiring areas are partially overlapped to form a measurement area within the resolution distance range , wherein the resolution distance range is a range between closest distance and furthest distance that each photographic lenses is able to focus and resolve; an optical distance measuring unit , disposed on the working surface ; and an optical projecting unit , disposed on the working surface and forwardly projecting an optical alignment indicator in a projection area ; wherein the projection area is located in the measurement area within the resolution distance range ; and wherein the optical alignment indicator is arranged along two different intersecting sides of the measurement area and across the measurement area , so that users may position an object within the measurement area by aligning the optical alignment indicator with the object. a main body , comprising a working surface ; a pair of photographic lenses , disposed on the working surface , each of the photographic lenses comprising an image acquiring area extended forwardly therefrom and capturing images within the image acquiring area separately, wherein an resolution distance range is located in front of each photographic lens , and each photographic lens identifies images within the resolution distance range , and the pair of image acquiring areas are partially overlapped to form a measurement area within the resolution distance range , wherein the resolution distance range is a range between closest distance and furthest distance that each photographic lenses is able to focus and resolve; an optical distance measuring unit , disposed on the working surface ; and an optical projecting unit , disposed on the working surface and forwardly projecting an optical alignment indicator in a projection area ; wherein the projection area is located in the measurement area within the resolution distance range ; and wherein the optical alignment indicator is arranged along two different intersecting sides of the measurement area and across the measurement area , so that users may position an object within the measurement area by aligning the optical alignment indicator with the object.
Fireproof closure consisting of several layers of elastic fire resistant material, having at least one supporting layer of fire resistant material, to which slats of fire resistant material are attached and each of which is attached one of its longitudinal edges, where least one surface of the slat has a swelling coating of material that becomes thicker after heating, characterized in that it has a supporting layer and a surface layer , while surface layer adjacent to the supporting layer on the slats side, and the swelling coating is placed on the surface of the slat on the side that adheres to the supporting layer , while each slat in the swelling state of swelling coating is deflected from the surface of the supporting layer and abuts its free edge against the surface of the adjacent surface layer
The isolated Penicillium bilaiae strain having the deposit accession number NRRL B-50788.
A primary load path failure detection system including: an actuator comprising: first and second mechanical parts that are unable to move relative to one another in normal use without failure of a primary load path ; a position sensor ; and a primary load path failure detection device of the type that disconnects the position sensor from the primary load path in the event of a primary load path failure, characterized in that the primary load path failure detection device comprises a check device, the check device comprising: a mechanical linkage for simulating disconnection of the position sensor by permitting relative movement of at least the first and second mechanical parts of the actuator, wherein these first and second mechanical parts include the first mechanical part with movement detected by the position sensor of the primary load path failure detection device. an actuator comprising: first and second mechanical parts that are unable to move relative to one another in normal use without failure of a primary load path ; a position sensor ; and a primary load path failure detection device of the type that disconnects the position sensor from the primary load path in the event of a primary load path failure, characterized in that the primary load path failure detection device comprises a check device, the check device comprising: a mechanical linkage for simulating disconnection of the position sensor by permitting relative movement of at least the first and second mechanical parts of the actuator, wherein these first and second mechanical parts include the first mechanical part with movement detected by the position sensor of the primary load path failure detection device.
A method of detecting and mitigating radio frequency, RF, interference at a first vehicle, the method being executed by a vehicle-to-everything, V2X device and comprising: detecting one or more vehicles within a threshold distance of the first vehicle, wherein the detecting the one or more vehicles within a threshold distance of the first vehicle comprises: receiving one or more return signals from a sensor of the first vehicle; determining a distance and a velocity of the one or more vehicles based on the one or more return signals, wherein the velocity includes a speed component and a direction component; determining the threshold distance based at least in part on the determined velocity; and determining the distance is less than the threshold distance; responsive to the detecting, determining a location and a motion state of the one or more vehicles; determining potential RF interference of at least a portion of a wireless network of the first vehicle by the one or more vehicles based at least in part on the determined location and the determined motion state of the one or more vehicles; and implementing an interference mitigation technique based at least in part on the determined location and the determined motion state of the one or more vehicles. detecting one or more vehicles within a threshold distance of the first vehicle, wherein the detecting the one or more vehicles within a threshold distance of the first vehicle comprises: receiving one or more return signals from a sensor of the first vehicle; determining a distance and a velocity of the one or more vehicles based on the one or more return signals, wherein the velocity includes a speed component and a direction component; determining the threshold distance based at least in part on the determined velocity; and determining the distance is less than the threshold distance; receiving one or more return signals from a sensor of the first vehicle; determining a distance and a velocity of the one or more vehicles based on the one or more return signals, wherein the velocity includes a speed component and a direction component; determining the threshold distance based at least in part on the determined velocity; and determining the distance is less than the threshold distance; responsive to the detecting, determining a location and a motion state of the one or more vehicles; determining potential RF interference of at least a portion of a wireless network of the first vehicle by the one or more vehicles based at least in part on the determined location and the determined motion state of the one or more vehicles; and implementing an interference mitigation technique based at least in part on the determined location and the determined motion state of the one or more vehicles.
An endoscopic resection assembly , comprising: (a) an adaptor , configured to couple to an endoscopic device; (b) a pusher , disposed on the adaptor ; (c) at least one driver, configured to move the pusher in a distal direction with respect to the adaptor ; and (d) a cutting device , removably coupled to the pusher , wherein the cutting device is configured to be removed from the pusher when at least a portion of the pusher is distal to the adaptor , wherein the adaptor is configured to be loaded with a clip , wherein the clip is configured to operate between an open state and a closed state wherein the clip is configured to be loaded on the adaptor in the open state at a position distal to the pusher , wherein the clip is configured to be pushed by the pusher to slide off the distal edge of the adaptor so that the clip is configured to be released from the adaptor and to engage onto a tissue before the cutting device is removed from the pusher . (a) an adaptor , configured to couple to an endoscopic device; (b) a pusher , disposed on the adaptor ; (c) at least one driver, configured to move the pusher in a distal direction with respect to the adaptor ; and (d) a cutting device , removably coupled to the pusher , wherein the cutting device is configured to be removed from the pusher when at least a portion of the pusher is distal to the adaptor , wherein the adaptor is configured to be loaded with a clip , wherein the clip is configured to operate between an open state and a closed state wherein the clip is configured to be loaded on the adaptor in the open state at a position distal to the pusher , wherein the clip is configured to be pushed by the pusher to slide off the distal edge of the adaptor so that the clip is configured to be released from the adaptor and to engage onto a tissue before the cutting device is removed from the pusher . wherein the cutting device is configured to be removed from the pusher when at least a portion of the pusher is distal to the adaptor , wherein the adaptor is configured to be loaded with a clip , wherein the clip is configured to operate between an open state and a closed state wherein the clip is configured to be loaded on the adaptor in the open state at a position distal to the pusher , wherein the clip is configured to be pushed by the pusher to slide off the distal edge of the adaptor so that the clip is configured to be released from the adaptor and to engage onto a tissue before the cutting device is removed from the pusher .
A compressor comprising: a compressor main body that compresses fluid; a motor that drives the compressor main body; a temperature sensor that detects temperature of the compressor; a pressure sensor that detects pressure of compressed fluid outputted from the compressor main body ; and a calculation unit that calculates a maintenance cycle of the compressor main body using the temperature of the compressor and the pressure of the compressed fluid with respective weights, characterized in that the calculation unit changes the weighting of the temperature in correspondence with the pressure of the compressed fluid. a compressor main body that compresses fluid; a motor that drives the compressor main body; a temperature sensor that detects temperature of the compressor; a pressure sensor that detects pressure of compressed fluid outputted from the compressor main body ; and a calculation unit that calculates a maintenance cycle of the compressor main body using the temperature of the compressor and the pressure of the compressed fluid with respective weights,
A method for separating in real-time voice from noise in an audio signal X received on a receiver equipped with an audio sensor, said audio signal X having a length L, characterised in that it contains at least the following steps: - the received audio stream is separated into N frames X N , - a tensor I N containing information on the entirety of the audio stream is associated with each frame X N , - each frame X N is transmitted to a first module M 1 , , configured to generate a signal X N 1 and a tensor I N -1 , obtained in the preceding iteration of processing the frame X N - 1, is transmitted to a module M 3 , , such that I N = I N- 1 + λ(A N - I N- 1 ) , with λ a gain factor and A N a tensor, - the signal X N 1 is transformed by a module M 2 in order to generate a signal X N 2 , - the module M 3 concatenates X N 2 and the tensor I N -1 in order to generate a signal X N 3 of 2F × T size, with F a given number of filters and T a divisor of the length L, - the signal X N 3 , , is transmitted to a module M 4 configured to generate a signal X N 4 that is combined, , with the signal X N 1 , - the signal resulting from the combination is decoded by a decoder M 5 , , in order to generate a first voice signal X N, 0 and a second signal X N,1 . - the received audio stream is separated into N frames X N , - a tensor I N containing information on the entirety of the audio stream is associated with each frame X N , - each frame X N is transmitted to a first module M 1 , , configured to generate a signal X N 1 and a tensor I N -1 , obtained in the preceding iteration of processing the frame X N - 1, is transmitted to a module M 3 , , such that I N = I N- 1 + λ(A N - I N- 1 ) , with λ a gain factor and A N a tensor, - the signal X N 1 is transformed by a module M 2 in order to generate a signal X N 2 , - the module M 3 concatenates X N 2 and the tensor I N -1 in order to generate a signal X N 3 of 2F × T size, with F a given number of filters and T a divisor of the length L, - the signal X N 3 , , is transmitted to a module M 4 configured to generate a signal X N 4 that is combined, , with the signal X N 1 , - the signal resulting from the combination is decoded by a decoder M 5 , , in order to generate a first voice signal X N, 0 and a second signal X N,1 .
An axle assembly comprising: a housing assembly that includes an axle housing that has a center portion that receives a differential of the axle assembly ; and a ballast insert assembly disposed in the center portion below the differential , wherein the ballast insert assembly includes: a body that at least partially defines a cavity and that has at least two lubricant ports ; and an inflatable bladder disposed in the cavity ; wherein a volume of lubricant in the cavity is greater when the inflatable bladder is deflated than when the inflatable bladder is inflated and wherein lubricant enters the body via the lubricant ports when the inflatable bladder is deflated. a housing assembly that includes an axle housing that has a center portion that receives a differential of the axle assembly ; and a ballast insert assembly disposed in the center portion below the differential , wherein the ballast insert assembly includes: a body that at least partially defines a cavity and that has at least two lubricant ports ; and an inflatable bladder disposed in the cavity ; a body that at least partially defines a cavity and that has at least two lubricant ports ; and an inflatable bladder disposed in the cavity ; wherein a volume of lubricant in the cavity is greater when the inflatable bladder is deflated than when the inflatable bladder is inflated and wherein lubricant enters the body via the lubricant ports when the inflatable bladder is deflated.
A bandwidth resource indication receiving method, comprising: receiving, by a terminal , a plurality of pieces of downlink control signaling from a plurality of network devices, wherein a piece of downlink control signaling of the plurality of pieces of downlink control signaling carries bandwidth resource indication information, and bandwidth resource indicated by a plurality of pieces of bandwidth resource indication information are the same and the plurality of pieces of downlink control signaling are sent by using a same frequency domain resource; and determining, by the terminal , the indicated bandwidth resource based on the bandwidth resource indication information. receiving, by a terminal , a plurality of pieces of downlink control signaling from a plurality of network devices, wherein a piece of downlink control signaling of the plurality of pieces of downlink control signaling carries bandwidth resource indication information, and bandwidth resource indicated by a plurality of pieces of bandwidth resource indication information are the same and the plurality of pieces of downlink control signaling are sent by using a same frequency domain resource; and determining, by the terminal , the indicated bandwidth resource based on the bandwidth resource indication information.
A sowing element for precision pneumatic seed drills comprising an isolating device for isolating the seed (S) which comprises a selector disc , the selector disc separating inside the isolating device two chambers which are intended to contain the seed to be isolated and to pressurize the isolating device, respectively, and wherein a pressure difference is established between the chambers by means of a pneumatic device, the pressure difference being generated and maintained via a series of holes extending between the opposite surfaces of the selector disc , so as to cause a seed (S) to adhere there for each hole and to transport the seed which is isolated in this manner towards a conduit for transporting the seed (S) with an initial portion which is proximal to the isolating device for isolating the seed (S), an intermediate portion which extends in continuation of the initial portion and a terminal portion , having a curvature, for dispensing the seed, wherein the conduit , at least in the initial portion and in the intermediate portion , is rectilinear and coaxial, and further comprising a pneumatic accelerator which is arranged along the conduit for transporting the seed (S), the pneumatic accelerator being positioned between the intermediate portion and the terminal portion of the conduit for transporting the seed (S), characterized in that the relationship between the total length of the initial portion and the intermediate portion and the length of the terminal portion of the conduit is greater than or equal to 2:1.
A link device for a robot, comprising: a 1st position control section comprising 1st four links hingedly joined together and 1st output link ; and a 2nd position control section comprising 2-1st four links hingedly joined together and 2-2nd four links hingedly joined together; wherein the 1st four links comprising a 1st fixed link , a 1st connecting rod positioned at an opposite side of the 1st fixed link , an 1st input-side transmission link connecting the 1st fixed link to one end of the 1st connecting rod , an 1st output-side transmission link positioned at an opposite side of the 1st input-side transmission link and the 1st output link coupled to the 1st output-side transmission link to be rotated by the 1st output-side transmission link , wherein the 2-1st four links comprising a 2-1st fixed link , a 2-1st connecting rod positioned at an opposite side of the 2-1st fixed link , an 2-1st input-side transmission link connecting the 2-1st fixed link to one end of the 2-1st connecting rod , and an 2-1st output-side transmission link positioned at an opposite side of the 2-1st input-side transmission link , wherein the 2-2nd four links comprising a 2-2nd fixed link , a 2-2nd connecting rod positioned at an opposite side of the 2-2nd fixed link , an 2-2nd input-side transmission link connecting the 2-2nd fixed link to one end of the 2-2nd connecting rod , and an 2-2nd output-side transmission link positioned at an opposite side of the 2-2nd input-side transmission link , and wherein the 1st output link and the 2-2nd fixed link are integrally coupled in a stacking arrangement. a 1st position control section comprising 1st four links hingedly joined together and 1st output link ; and a 2nd position control section comprising 2-1st four links hingedly joined together and 2-2nd four links hingedly joined together; wherein the 1st four links comprising a 1st fixed link , a 1st connecting rod positioned at an opposite side of the 1st fixed link , an 1st input-side transmission link connecting the 1st fixed link to one end of the 1st connecting rod , an 1st output-side transmission link positioned at an opposite side of the 1st input-side transmission link and the 1st output link coupled to the 1st output-side transmission link to be rotated by the 1st output-side transmission link , wherein the 2-1st four links comprising a 2-1st fixed link , a 2-1st connecting rod positioned at an opposite side of the 2-1st fixed link , an 2-1st input-side transmission link connecting the 2-1st fixed link to one end of the 2-1st connecting rod , and an 2-1st output-side transmission link positioned at an opposite side of the 2-1st input-side transmission link , wherein the 2-2nd four links comprising a 2-2nd fixed link , a 2-2nd connecting rod positioned at an opposite side of the 2-2nd fixed link , an 2-2nd input-side transmission link connecting the 2-2nd fixed link to one end of the 2-2nd connecting rod , and an 2-2nd output-side transmission link positioned at an opposite side of the 2-2nd input-side transmission link , and wherein the 1st output link and the 2-2nd fixed link are integrally coupled in a stacking arrangement.