mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting a frame by a device in a wireless communication network, the method comprising: generating a first symbol having a first subcarrier spacing using an inverse Fourier transform having a first size, a symbol duration of the first symbol, excluding a guard interval, having a first length; generating a second symbol having a second subcarrier spacing narrower than the first subcarrier spacing, a symbol duration of the second symbol, excluding a guard interval, having a second length that is twice the first length; and transmitting a frame including the first symbol and the second symbol, characterized in that generating the second symbol includes: allocating non-zero values to even-numbered subcarriers of a plurality of subcarriers; allocating zero values to each of odd-numbered subcarriers of the plurality of subcarriers; generating a waveform by performing an inverse Fourier transform having a size four times the first size on the plurality of subcarriers, the waveform having two periods; and generating the second symbol using only one period of the waveform. generating a first symbol having a first subcarrier spacing using an inverse Fourier transform having a first size, a symbol duration of the first symbol, excluding a guard interval, having a first length; generating a second symbol having a second subcarrier spacing narrower than the first subcarrier spacing, a symbol duration of the second symbol, excluding a guard interval, having a second length that is twice the first length; and transmitting a frame including the first symbol and the second symbol, characterized in that generating the second symbol includes: allocating non-zero values to even-numbered subcarriers of a plurality of subcarriers; allocating zero values to each of odd-numbered subcarriers of the plurality of subcarriers; generating a waveform by performing an inverse Fourier transform having a size four times the first size on the plurality of subcarriers, the waveform having two periods; and generating the second symbol using only one period of the waveform. allocating non-zero values to even-numbered subcarriers of a plurality of subcarriers; allocating zero values to each of odd-numbered subcarriers of the plurality of subcarriers; generating a waveform by performing an inverse Fourier transform having a size four times the first size on the plurality of subcarriers, the waveform having two periods; and generating the second symbol using only one period of the waveform.
Device for the implantation of occlusion helixes into body cavities or blood vessels, in particular aneurysms, with at least one occlusion helix consisting of platinum or a platinum alloy, comprising a plurality of windings, and being movably arranged in longitudinal direction within a catheter, and one securing means passing at least partially through the lumen of the occlusion helix, with said securing means being fixed in its end areas inside the occlusion helix, the securing means consists of at least two wires with each of the wires having a diameter of less than 0.02 mm in which at least a part of the wires is made of a metal having shape-memory properties, characterized in that the wires extend parallelly.
A contrail suppression system, comprising: a shell having an exhaust gas inlet, an exhaust gas outlet, a condensate drain and a flow chamber in fluid communication with the exhaust gas inlet, the exhaust gas outlet and the condensate drain, wherein the exhaust gas inlet is in fluid communication with a jet exhaust nozzle of a gas turbine engine; a first tube bundle disposed within the flow chamber downstream from the exhaust gas inlet, wherein the first tube bundle includes an inlet and an outlet, wherein the inlet of the first tube bundle is fluidly connected to a first cooling medium source; the system being characterised in that it comprises a second tube bundle disposed within the flow chamber downstream from the first tube bundle and upstream from the exhaust gas outlet, wherein the second tube bundle includes an inlet and an outlet, wherein the inlet of the second tube bundle is fluidly connected to a second cooling medium source. a shell having an exhaust gas inlet, an exhaust gas outlet, a condensate drain and a flow chamber in fluid communication with the exhaust gas inlet, the exhaust gas outlet and the condensate drain, wherein the exhaust gas inlet is in fluid communication with a jet exhaust nozzle of a gas turbine engine; a first tube bundle disposed within the flow chamber downstream from the exhaust gas inlet, wherein the first tube bundle includes an inlet and an outlet, wherein the inlet of the first tube bundle is fluidly connected to a first cooling medium source; the system being characterised in that it comprises a second tube bundle disposed within the flow chamber downstream from the first tube bundle and upstream from the exhaust gas outlet, wherein the second tube bundle includes an inlet and an outlet, wherein the inlet of the second tube bundle is fluidly connected to a second cooling medium source.
An image processing device for medical device deployment prediction, comprising: - an input unit; - a processing unit; and - an output unit; wherein the input unit is configured to provide to the processing unit 3D object data of a region of interest of an object; and 3D device model data of a device for deployment inside the object using an intervention device; and live intervention image data of the region of interest comprising spatial information of an intervention device provided for the deployment of the device for deployment; wherein the processing unit is configured to localize the intervention device within the 3D object data, and then to perform a spatial registration of the live intervention image data and the 3D object data; and wherein the output unit is configured to display the expected spatial relationship, characterized in that the localization of the intervention device within the 3D object data is exclusively based on a detection of the intervention device in the live intervention image data; and wherein the processing unit is configured to adapt the 3D device model data according to the 3D object data of the region of interest using the localization of the intervention device within the 3D object data, and to embed the adapted 3D device model data, representing the device for deployment, within the 3D data of the region of interest; thus generating an expected spatial relationship between the device for deployment and the region of interest of the object. - an input unit; - a processing unit; and - an output unit;
An infrared heater comprising: a heating element that emits infrared radiation when heated; and a filter unit including one or more transmission layers (51, 52) that transmit at least a part of the infrared radiation emitted from the heating element and a reflective section that reflects infrared radiation in a predetermined reflection wavelength range toward the heating element, wherein the heating element is capable of absorbing infrared radiation in the reflection wavelength range, characterized in that the filter unit is disposed so as to be separated by a first space, which is open to an outside space, from the heating element, the heating element is a planar heating element having a flat surface that is capable of emitting infrared radiation toward the one or more transmission layers (51, 52) and absorbing infrared radiation in the reflection wavelength range, and in that a surface of the heating element is facing the filter unit. a heating element that emits infrared radiation when heated; and a filter unit including one or more transmission layers (51, 52) that transmit at least a part of the infrared radiation emitted from the heating element and a reflective section that reflects infrared radiation in a predetermined reflection wavelength range toward the heating element, wherein the heating element is capable of absorbing infrared radiation in the reflection wavelength range, characterized in that the filter unit is disposed so as to be separated by a first space, which is open to an outside space, from the heating element, the heating element is a planar heating element having a flat surface that is capable of emitting infrared radiation toward the one or more transmission layers (51, 52) and absorbing infrared radiation in the reflection wavelength range, and in that a surface of the heating element is facing the filter unit.
A machine part of a sorting machine for eggs, comprising: - a body (20; 101) with a cylinder shape of substantially carbon fibers with the fibers in the longitudinal direction of said cylinder shape, said body functioning as carrier body with a carrier surface, and - adjacent circumferential bodies (10; 102-104) of a plastic provided through injection molding on said body (20; 101), the circumferential bodies (10; 102-104) being provided on at least a part of the carrier surface, wherein on the carrier body (20; 101), spacers (4; 104a-f) between adjacent circumferential bodies are provided through injection molding. - a body (20; 101) with a cylinder shape of substantially carbon fibers with the fibers in the longitudinal direction of said cylinder shape, said body functioning as carrier body with a carrier surface, and - adjacent circumferential bodies (10; 102-104) of a plastic provided through injection molding on said body (20; 101), the circumferential bodies (10; 102-104) being provided on at least a part of the carrier surface,
Method for treating water, containing organic matter characterized in that it comprises: • a step of adsorption of the organic matter contained in said water in which this water is put into contact with an amagnetic ion-exchanging resin in at least one infinitely stirred tank; • the filtering of the mixture of water and resin within said tank and the discharging of filtered water from this tank, said filtering being implemented through at least one screen provided within said tank enabling said resin to be contained in said infinitely stirred tank; • the periodic cleansing of said at least one screen consisting of the separation, from this screen, of the saturated resin that has collected thereon; • the draw-off of saturated resin from said tank; • the regenerating of at least a part of said saturated resin thus drawn off; • the recycling of said resin thus regenerated in said tank; • a step of ballasted coagulation/flocculation and of separation comprising: • the addition of coagulant reagent, flocculent reagent and microballast to the filtered water coming from said tank leading to the formation of flocs; • the separation of said formed flocs from a clarified water; • the discharge of said clarified water; and • the discharge of the sludges formed by the separated flocs. • a step of adsorption of the organic matter contained in said water in which this water is put into contact with an amagnetic ion-exchanging resin in at least one infinitely stirred tank; • the filtering of the mixture of water and resin within said tank and the discharging of filtered water from this tank, said filtering being implemented through at least one screen provided within said tank enabling said resin to be contained in said infinitely stirred tank; • the periodic cleansing of said at least one screen consisting of the separation, from this screen, of the saturated resin that has collected thereon; • the draw-off of saturated resin from said tank; • the regenerating of at least a part of said saturated resin thus drawn off; • the recycling of said resin thus regenerated in said tank; • a step of ballasted coagulation/flocculation and of separation comprising: • the addition of coagulant reagent, flocculent reagent and microballast to the filtered water coming from said tank leading to the formation of flocs; • the separation of said formed flocs from a clarified water; • the discharge of said clarified water; and • the discharge of the sludges formed by the separated flocs. • the addition of coagulant reagent, flocculent reagent and microballast to the filtered water coming from said tank leading to the formation of flocs; • the separation of said formed flocs from a clarified water; • the discharge of said clarified water; and • the discharge of the sludges formed by the separated flocs.
An architectural covering comprising: an end cap including a boss; a roller tube rotatably supported at least partially by said end cap; and a motor assembly including a housing in splined engagement with said end cap to non-rotatably secure said motor assembly to said end cap, said motor assembly received at least partially within said roller tube and in driving engagement with said roller tube, characterised in that said housing is in splined engagement within said boss of said end cap. an end cap including a boss; a roller tube rotatably supported at least partially by said end cap; and a motor assembly including a housing in splined engagement with said end cap to non-rotatably secure said motor assembly to said end cap, said motor assembly received at least partially within said roller tube and in driving engagement with said roller tube, characterised in that said housing is in splined engagement within said boss of said end cap.
An aluminum-copper-magnesium alloy consisting of from 3 to 5 weight percent Cu, from 0.5 to 2 weight percent Mg, from 0.01 to 0.8weight percent Li, from 0.05 to 0.5 weight percent Ag, optionally at least one dispersoid-forming element selected from chromium, vanadium, titanium, zirconium, manganese, nickel, iron, hafnium, scandium and rare earth elements, wherein the at least one dispersoid-forming element is present in a total amount up to 1.0 weight percent, optionally from 0.05 to 2 weight percent zinc, and optionally from 0.1 to 2 weight percent Si. wherein the Cu and Mg are present in the alloy in a total amount below a solubility limit of the alloy wherein Cu and Mg conform to the formula Cu <= 2.0 - 0.676 (Mg-6), the balance being aluminum and impurities.
Harvesting machine, in particular loading wagon, with a receiving device for receiving harvested material, which comprises a pickup conveyor, preferably in the form of a liftable and lowerable pick-up, including a rotatively-drivable spiked roller to collect the harvested material from the ground, as well as a feed conveyor downstream of the pickup conveyor, preferably in the form of a conveying rotor, to convey the picked-up harvested material, through a conveying channel, into a harvested material space, as well as moreover with detection means (14, 15, 16, 17, 18, 19, 20) to detect operating and/or processing parameters, as well as a control device to output control signals for the harvesting machine, wherein the pickup conveyor and the feed conveyor are controllable independently of one another through the control device in such a manner that the ratio of pickup conveyor drive speed to the feed conveyor drive speed is varied, depending on alteration of the detected operating and/or processing parameters, through the control device, characterized in that a traveling speed target value signal can be variably specified by the control device depending on a respectively established drive torque of the pickup conveyor, wherein the traveling speed target value signal is regulated by the control device in such a manner that the drive speed and/or the drive torque of the feed conveyor reaches a target value.
A motion-sickness mitigation system comprising a vehicle, a control system configured to monitor for motion input including at least one of a concurrent, an anticipated, or an instructed change in movement of the vehicle, the control system configured to produce a signal indicative of the change in movement in response to detecting the motion input, and a sensory feedback system configured to generate at least one of a tactile, visual, audial, and olfactory alert indicative of the change in movement to inform an occupant of the vehicle of the change in movement in response to receiving the signal from the control system to reduce a likelihood of the occupant becoming motion-sick.
Spring bar coupling, which has a hollow cylinder shape and defines a longitudinal axis, wherein the spring bar coupling comprises: a plurality of spring bar coupling elements (105a-c), wherein each spring bar coupling element (105a-c) comprises a first annular spring bar and a second annular spring bar, which are arranged parallel offset relative to one another along the longitudinal axis of the spring bar coupling, wherein the first annular spring bar and the second annular spring bar each comprise a first half ring-shaped spring bar portion (113a-1, 113a-3) and a second half ring-shaped spring bar portion (113a-2, 113a-4), which are arranged axially offset relative to one another in each case along the longitudinal axis of the spring bar coupling, wherein the first half ring-shaped spring bar portion (113a-1) of the first ring-shaped spring bar is connected with a material bond in each case via a first axial connecting element to the first half ring-shaped spring bar portion (113a-3) of the second ring-shaped spring bar of the spring bar coupling element (105a-c), characterised in that the second half ring-shaped spring bar portion (113a-2) of the first ring-shaped spring bar is connected with a material bond by way of a second axial connecting element to the second half ring-shaped spring bar portion (113a-4) of the second ring-shaped spring bar of the spring bar coupling element (105a-c), wherein the second axial connecting element relative to the longitudinal axis of the spring bar coupling is embodied in each case opposite to the first axial connecting element. a plurality of spring bar coupling elements (105a-c), wherein each spring bar coupling element (105a-c) comprises a first annular spring bar and a second annular spring bar, which are arranged parallel offset relative to one another along the longitudinal axis of the spring bar coupling, wherein the first annular spring bar and the second annular spring bar each comprise a first half ring-shaped spring bar portion (113a-1, 113a-3) and a second half ring-shaped spring bar portion (113a-2, 113a-4), which are arranged axially offset relative to one another in each case along the longitudinal axis of the spring bar coupling, wherein the first half ring-shaped spring bar portion (113a-1) of the first ring-shaped spring bar is connected with a material bond in each case via a first axial connecting element to the first half ring-shaped spring bar portion (113a-3) of the second ring-shaped spring bar of the spring bar coupling element (105a-c), characterised in that the second half ring-shaped spring bar portion (113a-2) of the first ring-shaped spring bar is connected with a material bond by way of a second axial connecting element to the second half ring-shaped spring bar portion (113a-4) of the second ring-shaped spring bar of the spring bar coupling element (105a-c), wherein the second axial connecting element relative to the longitudinal axis of the spring bar coupling is embodied in each case opposite to the first axial connecting element.
A preform comprising: a self-reinforced sheet comprising (a-1) a thermoplastic resin and (a-2) a fiber or tape made of a thermoplastic resin which is the same type as the thermoplastic resin (a-1), the self-reinforced sheet being reinforced with the fiber or tape (a-2); and a reinforced sheet comprising (b-1) a randomly-oriented mat of discontinuous carbon fibers and (b-2) a thermoplastic resin, wherein the self-reinforced sheet and the reinforced sheet are laminated one on another, each thermoplastic resin serving as a matrix resin of the preform, and wherein in the randomly-oriented mat (b-1), the discontinuous carbon fibers are dispersed at a dispersion ratio of at least 90%, and maximum value of a relative frequency of orientation angle distribution of the discontinuous carbon fibers is less than 0.25 and minimum value of the relative frequency of the orientation angle distribution of the discontinuous carbon fibers is at least 0.090. a self-reinforced sheet comprising (a-1) a thermoplastic resin and (a-2) a fiber or tape made of a thermoplastic resin which is the same type as the thermoplastic resin (a-1), the self-reinforced sheet being reinforced with the fiber or tape (a-2); and a reinforced sheet comprising (b-1) a randomly-oriented mat of discontinuous carbon fibers and (b-2) a thermoplastic resin,
Method for producing a wall-flow filter for reducing the harmful substances in the exhaust gas of an internal combustion engine, wherein a dry filter is selectively impinged on its input surface with a dry powder/gas aerosol which has at least one high-melting compound, such that the powder precipitates in the pores of the filter walls, characterized in that the powder is dispersed in the gas, then fed into a gas stream and sucked into the inlet side of the filter without further supply of a gas, and the filter was catalytically coated before impingement with the powder/gas aerosol.
A method for introducing a foreign DNA molecule at a predefined site in a genome of a plant cell comprising the steps of a. inducing a double stranded DNA break at said predefined site; b. introducing said foreign DNA molecule in said plant cell; and c. selecting a plant cell wherein said foreign DNA is introduced at said predefined site; characterized in that said predefined site is a nucleotide sequence different from a recognition site for a naturally occurring meganuclease and is a nucleotide sequence of a DNA region previously introduced as an element of a chimeric gene in a transgenic plant and that said double stranded DNA break is induced by introduction of a non-naturally occurring single chain meganuclease or a pair of non-naturally occurring meganucleases which is/are re-designed to recognize or recognize in concert said predefined site and induces or induce said double stranded break, without resorting to the presence of historically introduced recognition sites for rare-cleaving endonucleases. a. inducing a double stranded DNA break at said predefined site; b. introducing said foreign DNA molecule in said plant cell; and c. selecting a plant cell wherein said foreign DNA is introduced at said predefined site; characterized in that said predefined site is a nucleotide sequence different from a recognition site for a naturally occurring meganuclease and is a nucleotide sequence of a DNA region previously introduced as an element of a chimeric gene in a transgenic plant and that said double stranded DNA break is induced by introduction of a non-naturally occurring single chain meganuclease or a pair of non-naturally occurring meganucleases which is/are re-designed to recognize or recognize in concert said predefined site and induces or induce said double stranded break, without resorting to the presence of historically introduced recognition sites for rare-cleaving endonucleases.
A polysaccharide comprising optionally substituted, monosaccharide units linked via alpha-glycosidic bonds, wherein the polysaccharide is a neutral, uncharged polysaccharide, and has a backbone chain consisting of alpha-1,4-glycosidically linked anhydroglucose units, as therapeutically active compound for use in preventing metastasis formation and/or relapse by administration to a body cavity of a subject afflicted with cancer.