mhurhangee/ep-ind-claims huggingface dataset:
A method for performing orthogonal frequency division multiplexing-offset quadrature amplitude modulation, OFDM-OQAM, the method comprising: obtaining a data burst of N OQAM symbols, where N is odd; performing weighted circularly convolved filtering modulation on the data burst to produce an output signal, wherein a sequence of weighted data blocks is used as an input for OFDM/OQAM modulation such that an output of a modulator is periodic; and transmitting, by a first wireless device to a second wireless device, the output signal. obtaining a data burst of N OQAM symbols, where N is odd; performing weighted circularly convolved filtering modulation on the data burst to produce an output signal, wherein a sequence of weighted data blocks is used as an input for OFDM/OQAM modulation such that an output of a modulator is periodic; and transmitting, by a first wireless device to a second wireless device, the output signal.
A tomography apparatus comprising: a data acquirer configured to obtain a first image which is a partial image using first tomography data acquired as a first X-ray generator for generating X-rays and a second X-ray generator for generating X-rays respectively rotate around an object over a first angular range and a second angular range, and to obtain a second image which is a partial image by using second tomography data acquired as the first and the second X-ray generators (710, 720) respectively rotate around the object over the second angular range and a third angular range; the third angular range is opposite of the first angular range, a controller configured to acquire motion information representing an amount of motion of the object over time by using the first image and the second image; and an image reconstructor configured to reconstruct a target image showing the object at a target time point using the motion information, characterized in that the first X-ray generator is configured to generate X-rays having a first energy, and the second X-ray generator is configured to generate X-rays having a second energy, and in that the image reconstructor is further configured to reconstruct the target image based on a first reconstructed image and a second reconstructed image, the first reconstructed image and the second reconstructed image being generated based on the first tomography data and the second tomography data acquired during the rotation of the first x-ray generator and the second X-ray generator using the motion information. a data acquirer configured to obtain a first image which is a partial image using first tomography data acquired as a first X-ray generator for generating X-rays and a second X-ray generator for generating X-rays respectively rotate around an object over a first angular range and a second angular range, and to obtain a second image which is a partial image by using second tomography data acquired as the first and the second X-ray generators (710, 720) respectively rotate around the object over the second angular range and a third angular range; the third angular range is opposite of the first angular range, a controller configured to acquire motion information representing an amount of motion of the object over time by using the first image and the second image; and an image reconstructor configured to reconstruct a target image showing the object at a target time point using the motion information, characterized in that the first X-ray generator is configured to generate X-rays having a first energy, and the second X-ray generator is configured to generate X-rays having a second energy, and in that the image reconstructor is further configured to reconstruct the target image based on a first reconstructed image and a second reconstructed image, the first reconstructed image and the second reconstructed image being generated based on the first tomography data and the second tomography data acquired during the rotation of the first x-ray generator and the second X-ray generator using the motion information.
A sound absorbing and insulating material comprising: a base layer formed of a sound absorbing and insulating material; and a surface layer comprising a nonwoven fabric comprising 30-100 wt% of a heat-resistant fiber and a binder present in the same layer as the nonwoven fabric and maintaining a three-dimensional structure inside the nonwoven fabric, wherein the surface layer is stacked on one side of the base layer, and wherein the surface layer comprises 1-300 parts by weight of a binder based on 100 parts by weight of the nonwoven fabric, wherein the binder is a thermosetting resin, wherein the binder is uniformly distributed and attached to the surface of a fiber yarn of the nonwoven fabric and maintains or further forms micro cavities of the nonwoven fabric, wherein the base layer and the surface layer are stacked by an adhesive, characterised in that the adhesive is the binder included in the surface layer. a base layer formed of a sound absorbing and insulating material; and a surface layer comprising a nonwoven fabric comprising 30-100 wt% of a heat-resistant fiber and a binder present in the same layer as the nonwoven fabric and maintaining a three-dimensional structure inside the nonwoven fabric, wherein the surface layer is stacked on one side of the base layer, and wherein the surface layer comprises 1-300 parts by weight of a binder based on 100 parts by weight of the nonwoven fabric, wherein the binder is a thermosetting resin, wherein the binder is uniformly distributed and attached to the surface of a fiber yarn of the nonwoven fabric and maintains or further forms micro cavities of the nonwoven fabric, wherein the base layer and the surface layer are stacked by an adhesive, characterised in that the adhesive is the binder included in the surface layer.
A method for monitoring the movements imposed on at least one fork forming part of a robotized gearbox and able, when it is translated by an actuator, to actuate a synchronizer mounted on a secondary shaft and associated with pinions contributing to the defining of gear ratios, each imposed movement being defined as a function of at least one measurement taken following the application of two predefined forces to said actuator, characterized in that it includes a step (i) in which, in the event of detection of a problem resulting from the actuation of a synchronizer, said two predefined forces are applied on said actuator and at least one other corresponding measurement is taken in order to determine an auxiliary movement, then a difference is determined between said imposed and auxiliary movements which correspond to one another, and a step (ii) in which there is associated with each fork a new imposed movement as a function of its previous imposed movement and of said determined difference, in that in said step (ii) there is associated with each fork a new imposed movement equal to the sum of its previous imposed movement and a selected part of said determined difference and in that said selected part varies from one fork to another as a function of the gear ratios with which they are respectively associated.
A working vehicle comprising: an engine which is mounted to a travel machine body; a pair of right and left travel facilitating portions which are rotated by a power of the engine; a pair of right and left brake operation devices (251, 251) for respectively operating to brake the pair of right and left travel facilitating portions; an engine controller which controls driving of the engine; and the engine controller selecting any of an isochronous control and a droop control so as to control the engine, wherein the working vehicle has a control mode selection switch (271, 272, 350) which can alternatively select the isochronous control and the droop control, characterised in that in the case that the isochronous control is designated by the control mode selection switch (271, 272), the engine is controlled according to the isochronous control when one of the right and left brake operation devices (251, 251) is under a non-operation state, and the engine is controlled according to the droop control when both of the right and left brake operation devices (251, 251) are under an operation state. an engine which is mounted to a travel machine body; a pair of right and left travel facilitating portions which are rotated by a power of the engine; a pair of right and left brake operation devices (251, 251) for respectively operating to brake the pair of right and left travel facilitating portions; an engine controller which controls driving of the engine; and the engine controller selecting any of an isochronous control and a droop control so as to control the engine, wherein the working vehicle has a control mode selection switch (271, 272, 350) which can alternatively select the isochronous control and the droop control, characterised in that in the case that the isochronous control is designated by the control mode selection switch (271, 272), the engine is controlled according to the isochronous control when one of the right and left brake operation devices (251, 251) is under a non-operation state, and the engine is controlled according to the droop control when both of the right and left brake operation devices (251, 251) are under an operation state.
A method for wireless communication performed by a user equipment, LTE, comprising: receiving, from a base station while operating in a discontinuous reception, DRX, mode, a first set of signals in a first set of downlink transmit beams with a first granularity and a second set of signals in a second set of downlink transmit beams with the first granularity, wherein the first set of signals comprise reference signals or synchronization signals, or a combination thereof; determining a signal quality associated with the received first set of signals;selecting the second set of downlink transmit beams based at least in part on the determined signal quality associated with the received first set of signals, the second set of downlink transmit beams comprising two or more downlink transmit beams that are different from the first set of downlink transmit beams; transmitting an indication of the selected second set of transmit beams to the base station; receiving a wakeup signal from the base station, the wakeup signal received using at least one downlink transmit beam of the second set of downlink transmit beams; waking up from a sleep state of the DRX mode to receive data based at least in part on the received wakeup signal; receiving a third set of signals from the base station, in a set of downlink transmit beams with a second granularity, wherein the second granularity is higher than the first granularity of the first and the second set of downlink transmit beams; and determining one of the set of downlink transmit beams with the second granularity for data transmissions. receiving, from a base station while operating in a discontinuous reception, DRX, mode, a first set of signals in a first set of downlink transmit beams with a first granularity and a second set of signals in a second set of downlink transmit beams with the first granularity, wherein the first set of signals comprise reference signals or synchronization signals, or a combination thereof; determining a signal quality associated with the received first set of signals;selecting the second set of downlink transmit beams based at least in part on the determined signal quality associated with the received first set of signals, the second set of downlink transmit beams comprising two or more downlink transmit beams that are different from the first set of downlink transmit beams; transmitting an indication of the selected second set of transmit beams to the base station; receiving a wakeup signal from the base station, the wakeup signal received using at least one downlink transmit beam of the second set of downlink transmit beams; waking up from a sleep state of the DRX mode to receive data based at least in part on the received wakeup signal; receiving a third set of signals from the base station, in a set of downlink transmit beams with a second granularity, wherein the second granularity is higher than the first granularity of the first and the second set of downlink transmit beams; and determining one of the set of downlink transmit beams with the second granularity for data transmissions.
An osteotomy guiding implant for use in orthognathic surgery, the osteotomy guiding implant comprising: a plate member that is pre-shaped to correspond to a pre-operative shape of a maxilla; a template portion extending from the plate member that is pre-shaped to correspond to the pre-operative shape of the maxilla, the template portion defining a plurality of apertures, such that the apertures are arranged to provide a template for pre-osteotomy drilling holes that define a cutting guide path in the maxilla so as to separate a first portion of the maxilla from a second portion of the maxilla. a plate member that is pre-shaped to correspond to a pre-operative shape of a maxilla; a template portion extending from the plate member that is pre-shaped to correspond to the pre-operative shape of the maxilla, the template portion defining a plurality of apertures, such that the apertures are arranged to provide a template for pre-osteotomy drilling holes that define a cutting guide path in the maxilla so as to separate a first portion of the maxilla from a second portion of the maxilla.
A method of registering a service in a telecommunication network having a Service Based Architecture, SBA, wherein said telecommunication network having a Service Collection Function, SCF, comprising a plurality of distinct SBA services and comprising a Collection Controller, CoC, for registering and discovering of said plurality of distinct SBA services within said SCF, wherein said telecommunication network further comprises a Network Repository Function, NRF, for registering and discovering services within said telecommunication network, said method comprises the steps of: - receiving, by said CoC, from one (A 41) of said distinct SBA services, a registration message for registering a service; - determining, by said CoC, that said service is to be provided within said SCF only; - refraining, by said CoC, from forwarding said registration message to said NRF based on said determination; - registering, by said CoC, said service in said CoC for discovering said service by any of said plurality of distinct SBA services within said SCF, wherein said method further comprises the steps of: - receiving, by said CoC from one (B 42) of said distinct SBA services, a registration message for registering a further service; - determining, by said CoC, that said further service is to be provided within said telecommunication network; - forwarding, by said CoC, said registration message to said NRF for registering and discovering said further service in said NRF. - receiving, by said CoC, from one (A 41) of said distinct SBA services, a registration message for registering a service; - determining, by said CoC, that said service is to be provided within said SCF only; - refraining, by said CoC, from forwarding said registration message to said NRF based on said determination; - registering, by said CoC, said service in said CoC for discovering said service by any of said plurality of distinct SBA services within said SCF, wherein said method further comprises the steps of: - receiving, by said CoC from one (B 42) of said distinct SBA services, a registration message for registering a further service; - determining, by said CoC, that said further service is to be provided within said telecommunication network; - forwarding, by said CoC, said registration message to said NRF for registering and discovering said further service in said NRF.
Housing for covering a functional element with a first housing part and with a second housing part that can be connected thereto, which in the assembled state jointly limit or prevent access to the functional element in such a manner that said element cannot be tampered with, wherein in the region of a joint between the first and second housing part, a seal in the form of a flat body is provided, which spans the joint and is connected to at least one housing part, in such a manner that a relative movement of the two housing parts (2, 3) in respect of one another to make the functional element accessible is impossible without an irreversible change in the seal, characterized in that in the region in which the seal spans the joint, the first of the housing parts comprises a mating member which is plastically or elastically movable relative to the other parts of the first housing part, such that when the two housing parts (2, 3) are in the assembled state, it bears against the second housing part without play, wherein the mating member is configured in such a manner that when the housing is assembled it projects beyond other parts of the first housing part in the assembly direction and is deformed or swung away when it encounters the second housing part.
A method for the purification of substrate-containing wastewater in a continuous flow-through aerobic biologically activated sludge reactor B, wherein at least part of biological sludge 6 is conditioned in a selector S under anaerobic or anoxic conditions with at least part of the substrate-containing, to-be-purified wastewater 2, optionally after a pre-treatment step VB of the supplied wastewater 1, such that at least 20 wt% of the sludge in the selector S has a residence time in the selector which is at least 20% greater than the hydraulic residence time of the sludge/water mixture in the selector, after which the thus conditioned sludge/water mixture 3, optionally after an additional anaerobic or anoxic contact step, is fed to the aerobic purification reactor B and subjected to aerobic treatment B, wherein the treated wastewater 4 after aerobic treatment is optionally separated from the sludge by settling NB, flotation or mechanical separation, and wherein at least a portion of the sludge separated from the aerobically treated wastewater is returned to the selector as return sludge 6. such that at least 20 wt% of the sludge in the selector S has a residence time in the selector which is at least 20% greater than the hydraulic residence time of the sludge/water mixture in the selector, after which the thus conditioned sludge/water mixture 3, optionally after an additional anaerobic or anoxic contact step, is fed to the aerobic purification reactor B and subjected to aerobic treatment B, wherein the treated wastewater 4 after aerobic treatment is optionally separated from the sludge by settling NB, flotation or mechanical separation, and wherein at least a portion of the sludge separated from the aerobically treated wastewater is returned to the selector as return sludge 6.
A cryotherapy catheter for detecting and treating vulnerable plaque of a blood vessel having a lumen surface, said catheter comprising: a catheter body having a proximal end and a distal end, with a cooling fluid supply lumen and an exhaust lumen extending therebetween; a first balloon disposed near the distal end of the catheter body, the first balloon having an inner surface in fluid communication with the supply lumen and the exhaust lumen; a second balloon disposed over the first balloon with a thermal barrier therebetween; a vacuum space defined between the first balloon and the second balloon, the vacuum space being coupled to a fluid shutoff so as to inhibit flow of cryogenic fluid into the first balloon in response to a change in the vacuum space, wherein the vacuum space is coupled to a vacuum lumen of the catheter body; and a plurality of temperature sensors coupled to the second balloon so as to provide temperature measurements of the lumen surface. a catheter body having a proximal end and a distal end, with a cooling fluid supply lumen and an exhaust lumen extending therebetween; a first balloon disposed near the distal end of the catheter body, the first balloon having an inner surface in fluid communication with the supply lumen and the exhaust lumen; a second balloon disposed over the first balloon with a thermal barrier therebetween; a vacuum space defined between the first balloon and the second balloon, the vacuum space being coupled to a fluid shutoff so as to inhibit flow of cryogenic fluid into the first balloon in response to a change in the vacuum space, wherein the vacuum space is coupled to a vacuum lumen of the catheter body; and a plurality of temperature sensors coupled to the second balloon so as to provide temperature measurements of the lumen surface.
Cable harness test system, comprising: a cable tester that has a microcomputer and a multiplicity of first test point connections for connecting first ends of a multiplicity of electrical lines of a cable harness and is designed to feed line test signals into the multiplicity of electrical lines of the cable harness at the first test point connections, the line test signals being able to be generated by the cable tester in a manner adaptable to suit respective lines of the multiplicity of electrical lines of the cable harness; and a multiplicity of interface simulation devices (5, 6) that each have a multiplicity of second test point connections for connecting second ends of the multiplicity of electrical lines of the cable harness and are each designed to return line test signals received from the cable tester at the second test point connections to the cable tester by way of the multiplicity of electrical lines of the cable harness, the cable tester furthermore being designed to evaluate line test signals returned to the cable tester from the multiplicity of interface simulation devices (5, 6). a cable tester that has a microcomputer and a multiplicity of first test point connections for connecting first ends of a multiplicity of electrical lines of a cable harness and is designed to feed line test signals into the multiplicity of electrical lines of the cable harness at the first test point connections, the line test signals being able to be generated by the cable tester in a manner adaptable to suit respective lines of the multiplicity of electrical lines of the cable harness; and a multiplicity of interface simulation devices (5, 6) that each have a multiplicity of second test point connections for connecting second ends of the multiplicity of electrical lines of the cable harness and are each designed to return line test signals received from the cable tester at the second test point connections to the cable tester by way of the multiplicity of electrical lines of the cable harness, the cable tester furthermore being designed to evaluate line test signals returned to the cable tester from the multiplicity of interface simulation devices (5, 6).