mhurhangee/ep-ind-claims huggingface dataset:
A beamforming system, comprising: a plurality of modular beamformers, (405A,405B) operatively coupled to each other; each modular beamformer (405A-405B) of the plurality of modular beamformers comprising: a plurality of signal generation units (105A-105Z,110A-110Z) configured to generate digital signals; a plurality of delaying units (115A-115Z) configured to receive the digital signals and adaptively delay the digital signals; a plurality of multipliers associated with the plurality of delaying units (115A-115Z), wherein the multipliers are configured to generate conditioned digital signals by processing the digital signals delayed by the plurality of delaying units (115A-115Z); a plurality of summers (415A-415C) configured to combine the conditioned digital signals to generate a phased array output signal; and characterized by the system further comprising a connection unit (425A,425B) configured to connect a summer of a first modular beamformer with a summer of one or more further modular beamformers such that the signals from one summer of one modular beamformer are transmittable to another summer of another modular beamformer in a first direction and signals from one summer of one modular beamformer are transmittable to another summer of another modular beamformer in a second direction opposite to the first direction. a plurality of modular beamformers, (405A,405B) operatively coupled to each other; each modular beamformer (405A-405B) of the plurality of modular beamformers comprising: a plurality of signal generation units (105A-105Z,110A-110Z) configured to generate digital signals; a plurality of delaying units (115A-115Z) configured to receive the digital signals and adaptively delay the digital signals; a plurality of multipliers associated with the plurality of delaying units (115A-115Z), wherein the multipliers are configured to generate conditioned digital signals by processing the digital signals delayed by the plurality of delaying units (115A-115Z); a plurality of summers (415A-415C) configured to combine the conditioned digital signals to generate a phased array output signal; and characterized by the system further comprising a plurality of signal generation units (105A-105Z,110A-110Z) configured to generate digital signals; a plurality of delaying units (115A-115Z) configured to receive the digital signals and adaptively delay the digital signals; a plurality of multipliers associated with the plurality of delaying units (115A-115Z), wherein the multipliers are configured to generate conditioned digital signals by processing the digital signals delayed by the plurality of delaying units (115A-115Z); a plurality of summers (415A-415C) configured to combine the conditioned digital signals to generate a phased array output signal; and characterized by the system further comprising
A control system for a vehicle, the system comprising: control means (140, 201) operable to monitor an accelerator control signal of the vehicle and to control a powertrain of the vehicle to apply an amount of torque to one or more wheels (111, 112, 114, 115) of the vehicle corresponding to the accelerator control signal, the powertrain comprising prime mover means (121; 123); an accelerometer device operable to measure a rate of acceleration of the vehicle; and means for checking the measured acceleration against a vehicle acceleration determined from wheel speed, and providing a warning signal if the measured acceleration and the vehicle acceleration determined from wheel speed are not consistent; means for determining whether the checked measured rate of acceleration of the vehicle and the accelerator control signal have an expected correspondence taking into account a yaw rate of the vehicle, wherein if the checked measured rate of acceleration and the accelerator control signal do not have the expected correspondence, the control means (140, 201) is operable to command a change in the amount of torque applied to the one or more wheels (111, 112, 114, 115) by the powertrain. control means (140, 201) operable to monitor an accelerator control signal of the vehicle and to control a powertrain of the vehicle to apply an amount of torque to one or more wheels (111, 112, 114, 115) of the vehicle corresponding to the accelerator control signal, the powertrain comprising prime mover means (121; 123); an accelerometer device operable to measure a rate of acceleration of the vehicle; and means for checking the measured acceleration against a vehicle acceleration determined from wheel speed, and providing a warning signal if the measured acceleration and the vehicle acceleration determined from wheel speed are not consistent; means for determining whether the checked measured rate of acceleration of the vehicle and the accelerator control signal have an expected correspondence taking into account a yaw rate of the vehicle, wherein if the checked measured rate of acceleration and the accelerator control signal do not have the expected correspondence, the control means (140, 201) is operable to command a change in the amount of torque applied to the one or more wheels (111, 112, 114, 115) by the powertrain.
Drilling rig bearing arrangement which has a main body with a suspension and a receptacle for a drill pipe, wherein a mount is arranged between the main body and the receptacle for the drill pipe in order to support the receptacle radially and axially relative to the main body and to rotate the drill pipe about an axis relative to the main body by a drive means, wherein the drilling rig bearing arrangement is in the form of a drill head and its axis of rotation is arranged vertically when used as intended, wherein the mount has a bearing inner ring (7, 7', 7") consisting of one part or assembled from two parts and a bearing outer ring (8, 8', 8") consisting of one part or assembled from two parts, wherein at least two raceways (9', 9", 9"'; 10', 10", 10'") have been incorporated both into the bearing inner ring (7, 7', 7") and into the bearing outer ring (8, 8', 8"), wherein at least two rows of rolling elements (11, 12, 13) are arranged between the raceways (9', 9", 9"'; 10', 10", 10'"), wherein one of the rows of rolling elements is tapered rollers, characterized in that one raceway (10', 10"') of the row of tapered rollers is formed by a raceway ring (16, 17), which is preloaded by means of a spring element (18, 19) in the direction of the axis of the bearing arrangement relative to the bearing ring (7, 7', 7"; 8, 8', 8") carrying it.
Channel press, which consists at least of a substantially horizontally arranged press channel and a press ram, the ram being periodically movable into the latter and comprising a shearing knife, and in which a press box is arranged between a starting and waiting position of the press ram and the inlet opening of the press channel, into the upper, open area region of which box a filling shaft opens, and a non-movable opposing knife is arranged in the transition region between the press box and the inlet opening of the press channel in the upper edge or inner-surface region, which opposing knife has a central point and extends by its cutting edge on either side of a plane of symmetry of the press channel up to the side walls (2c, 2d) thereof so that on movement of the press ram towards the press channel the shearing knife co-operates with the non-movable opposing knife, characterised in that on either side of the central point a first section of the cutting edge of the opposing knife is directed positively towards the respective channel wall and from the end of the section a second section of this cutting edge extends up to the channel wall (2c; 2d), wherein the angle (δ) between the first section and the second section of the cutting edge at the non-movable opposing knife on the side of the press ram is an obtuse angle and the second section of the cutting edge and the inner wall of the side wall (2c; 2d) of the press channel form a right angle.
A beam guiding apparatus, comprising: a vacuum chamber, in which a target material is introducible into a target region for generating EUV radiation, wherein the vacuum chamber has a first opening for the entry of a first laser beam and a second opening for the entry of a second laser beam, wherein the first laser beam and the second laser beam have different wavelengths (λ 1, λ 2), and a superposition apparatus for superposing the two laser beams (3, 5) entering into the vacuum chamber through the first and second openings (13, 14) for common beam guidance in the direction of the target region, wherein the superposition apparatus is embodied as a reflecting optical element arranged in the vacuum chamber, which optical element has a first surface region for reflecting the first laser beam and a second surface region, surrounding the first surface region in a ring-shaped manner, for reflecting the second laser beam, characterized in that the reflecting optical element is designed to expand the first and second laser beams (3, 5). a vacuum chamber, in which a target material is introducible into a target region for generating EUV radiation, wherein the vacuum chamber has a first opening for the entry of a first laser beam and a second opening for the entry of a second laser beam, wherein the first laser beam and the second laser beam have different wavelengths (λ 1, λ 2), and a superposition apparatus for superposing the two laser beams (3, 5) entering into the vacuum chamber through the first and second openings (13, 14) for common beam guidance in the direction of the target region, wherein the superposition apparatus is embodied as a reflecting optical element arranged in the vacuum chamber, which optical element has a first surface region for reflecting the first laser beam and a second surface region, surrounding the first surface region in a ring-shaped manner, for reflecting the second laser beam, characterized in that the reflecting optical element is designed to expand the first and second laser beams (3, 5).
A compound of formula wherein A is -O-, -S-, -CH 2 -, -NH- or -SO 2 -; B is a five to twelve membered carbocyclic ring or a five to twelve membered heterocyclic ring, wherein the ring is optionally substituted with one or two substituents independently selected from halogen, alkyl, alkoxy, haloalkyl, haloalkoxy, cycloalkyl, cycloalkylalkoxy, sulfonyl, sulfanyl, cycloalkylsulfonyl, cycloalkylsulfanyl, alkoxycarbonylazetidinyl, cyano, azetidinyl or alkylsulfanyl; D is -O-, -S-, -CH 2 -, -NH- or -SO 2 -; one of R 1, R 2, R 3 and R 4 is hydrogen and the other ones are independently selected from hydrogen, halogen, alkyl, alkoxy, haloalkoxy, cycloalkyl and phenyl; R 5 and R 6 are independently selected from and hydrogen, alkyl, haloalkyl, cycloalkyl, phenyl and phenylalkyl; or R 5 and R 6 together with the carbon atom to which they are attached form cycloalkyl, pyrrolidinyl or piperidinyl; and ---- is a carbon-carbon single bond or a carbon-carbon double bond; or a pharmaceutically acceptable salt or ester thereof A is -O-, -S-, -CH 2 -, -NH- or -SO 2 -; B is a five to twelve membered carbocyclic ring or a five to twelve membered heterocyclic ring, wherein the ring is optionally substituted with one or two substituents independently selected from halogen, alkyl, alkoxy, haloalkyl, haloalkoxy, cycloalkyl, cycloalkylalkoxy, sulfonyl, sulfanyl, cycloalkylsulfonyl, cycloalkylsulfanyl, alkoxycarbonylazetidinyl, cyano, azetidinyl or alkylsulfanyl; D is -O-, -S-, -CH 2 -, -NH- or -SO 2 -; one of R 1, R 2, R 3 and R 4 is hydrogen and the other ones are independently selected from hydrogen, halogen, alkyl, alkoxy, haloalkoxy, cycloalkyl and phenyl; R 5 and R 6 are independently selected from and hydrogen, alkyl, haloalkyl, cycloalkyl, phenyl and phenylalkyl; or R 5 and R 6 together with the carbon atom to which they are attached form cycloalkyl, pyrrolidinyl or piperidinyl; and ---- is a carbon-carbon single bond or a carbon-carbon double bond; or a pharmaceutically acceptable salt or ester thereof
A device comprising a container for switching a particulate material flow in the layered construction of models, wherein particulate materials are supplied from the container (1, 1', 1") to a subsequent process step, said container (1, 1', 1") having an opening directed towards a workpiece platform, characterised in that means are provided inside the container (1, 1', 1 "), on the walls thereof, for appyling a negative pressure onto the particulate material so as to form particulate material bridges (7, 7') and for applying a positive pressure so as to dissolve the particulate material bridges (7, 7') generated.
A matrix for matrix-assisted laser desorption/ionization (MALDI) mass spectrometry, comprising: a compound represented by the following 18 to 21, 25, 26, 41 or 42, or the salts thereof: a compound represented by the following 18 to 21, 25, 26, 41 or 42, or the salts thereof:
An optical system (100, 101, 103) comprising: i) an optical element (140, 140a, 140b, 217, 218, 219) configured to cause a polarization state distribution of light to change from a predetermined polarization state distribution, wherein the optical element (140, 140a, 140b, 217, 218, 219) comprises a spatial light modulator; and, ii) a polarization-altering optical device (110,210) configured to change the polarization state distribution of the light spatially based on an amount of change to the polarization state distribution caused by the optical element (140, 140a, 140b, 217, 218,219), iii) a controller for controlling the PAD (110, 210); wherein the optical system (140, 140a, 140b, 217, 218, 219) is configured to output the light having the predetermined polarization state distribution; characterized in that: said SLM is a digital micromirror device; and the PAD (110, 210) is positioned at a conjugate plane to the DMD or is offset from the conjugate plane to the DMD and comprises a liquid crystal device constructed as a matrix of separately spatially electronically addressable pixels so that the polarization state of light can be controlled by a different amount on a pixel-by-pixel basis. i) an optical element (140, 140a, 140b, 217, 218, 219) configured to cause a polarization state distribution of light to change from a predetermined polarization state distribution, wherein the optical element (140, 140a, 140b, 217, 218, 219) comprises a spatial light modulator; and, ii) a polarization-altering optical device (110,210) configured to change the polarization state distribution of the light spatially based on an amount of change to the polarization state distribution caused by the optical element (140, 140a, 140b, 217, 218,219), iii) a controller for controlling the PAD (110, 210); said SLM is a digital micromirror device; and the PAD (110, 210) is positioned at a conjugate plane to the DMD or is offset from the conjugate plane to the DMD and comprises a liquid crystal device constructed as a matrix of separately spatially electronically addressable pixels so that the polarization state of light can be controlled by a different amount on a pixel-by-pixel basis.
A method for operating a bending press, comprising automatically controlled adjustment of a stop finger of a stop device along at least one first, horizontal adjustment axis in the direction of a vertical bending plane defined by a lower bending tool and an upper bending tool adjustable relative thereto, into a stop position intended for positioning a workpiece, wherein the stop finger comprises a foremost stop surface nearest to the bending plane for positioning a workpiece for bend-forming, characterized in that at least during an automatically controlled adjusting movement of the stop finger along the first adjustment axis into the stop position, an observation region located horizontally ahead of the stop finger in the adjustment direction between the foremost stop surface and the bending plane is monitored for obstacles by means of an image detecting device arranged on the stop device so as to be motion-coupled to the stop finger along all horizontal adjustment axes (20, 21) provided for the stop finger, wherein for detecting obstacles during the adjusting movement in the stop position, a first light beam is radiated into the observation region located ahead of the stop surface by means of a lighting device arranged on the stop device at a distance from the image detecting device so as to be motion-coupled to the stop finger along all horizontal adjustment axes (20, 21) provided for the stop finger, and that when an obstacle is detected during the adjusting movement of the stop finger along the first adjustment axis into the stop position a safety measure is carried out in an automatically controlled manner.
A process for producing an elastic material from tropoelastin including: heating a solution of tropoelastin having an alkaline pH of 9 or greater to a temperature in the range of 4 to 42°C; holding the solution at the heated temperature in the absence of a cross-linking agent for a sufficient period of time to form an elastic material from the tropoelastin in the solution that does not disperse or dissociate into free tropoelastin; and recovering the elastic material thereby producing the elastic material from the tropoelastin.
A method for performing prenatal diagnosis of a fetal chromosomal aneuploidy in a biological sample obtained from a pregnant female subject, wherein the biological sample is maternal plasma and includes nucleic acid molecules, the method comprising: receiving the biological sample; randomly sequencing at least a portion of a plurality of the nucleic acid molecules contained in the biological sample, wherein the sequenced portion represents a fraction of the human genome; based on the sequencing: determining a first amount of a first chromosome from sequences identified as originating from the first chromosome; determining a second amount of one or more second chromosomes from sequences identified as originating from one of the second chromosomes; determining a parameter from the first amount and the second amount; comparing the parameter to one or more cutoff values; and based on the comparison, determining a classification of whether a fetal chromosomal aneuploidy exists for the first chromosome. receiving the biological sample; randomly sequencing at least a portion of a plurality of the nucleic acid molecules contained in the biological sample, wherein the sequenced portion represents a fraction of the human genome; based on the sequencing: determining a first amount of a first chromosome from sequences identified as originating from the first chromosome; determining a second amount of one or more second chromosomes from sequences identified as originating from one of the second chromosomes; determining a parameter from the first amount and the second amount; comparing the parameter to one or more cutoff values; and based on the comparison, determining a classification of whether a fetal chromosomal aneuploidy exists for the first chromosome. determining a first amount of a first chromosome from sequences identified as originating from the first chromosome; determining a second amount of one or more second chromosomes from sequences identified as originating from one of the second chromosomes; determining a parameter from the first amount and the second amount; comparing the parameter to one or more cutoff values; and based on the comparison, determining a classification of whether a fetal chromosomal aneuploidy exists for the first chromosome.
A forged aluminum alloy product comprising a crystalline microstructure having grains, wherein the grains include first type grains and second type grains, wherein the crystalline microstructure comprises from about 5 vol. % to about 50 vol. % of the first type grains, wherein the first type grains at least include representative first grains, wherein the representative first grains have an average aspect ratio of at least about 3.5:1 in the LT-ST plane and an average aspect ratio of at least about 5:1 in the L-ST plane, and wherein the forged aluminum alloy product realizes a maximum ODF intensity of at least about 30.
A nozzle cap for a fuel injection nozzle operable in a hydrogen internal combustion engine, the nozzle cap comprising: an inlet for receiving a flow of hydrogen controllable by an inlet valve arrangeable in the inlet, at least one outlet for providing an exit flow of hydrogen, and an internal bottom flow-guiding body arranged at a bottom side of the nozzle cap downstream of the inlet in a nozzle cap volume, the internal bottom flow-guiding body comprising a convex ridge protruding towards the inlet and comprises a flow-guiding surface for re-directing a flow of hydrogen from the inlet towards the outlet, characterized in that the convex ridge is centralized in the bottom of the nozzle cap and is arranged to reach from side-to-side across the entire nozzle cap volume. an inlet for receiving a flow of hydrogen controllable by an inlet valve arrangeable in the inlet, at least one outlet for providing an exit flow of hydrogen, and an internal bottom flow-guiding body arranged at a bottom side of the nozzle cap downstream of the inlet in a nozzle cap volume, the internal bottom flow-guiding body comprising a convex ridge protruding towards the inlet and comprises a flow-guiding surface for re-directing a flow of hydrogen from the inlet towards the outlet, characterized in that the convex ridge is centralized in the bottom of the nozzle cap and is arranged to reach from side-to-side across the entire nozzle cap volume.
Detector element for detecting incident x-ray radiation, said detector element comprising a scintillation layer for converting the x-ray radiation into scintillation light and a photoactive element for converting the scintillation light into an electrical signal, wherein the photoactive element comprises two photodiodes (6a,6b), which in each case are arranged on one of the two plane faces of the scintillation layer, - wherein one of the photodiodes comprises a first photoactive absorption layer contacted by an electrode and the other of the photodiodes comprises a second photoactive absorption layer contacted by a counter electrode, - wherein the one photodiode comprises a first electrically conductive intermediate layer, wherein the other photodiode comprises a second electrically conductive intermediate layer, wherein the respective intermediate layer (10a, 10b) is arranged such that it adjoins the respective absorption layer (8a,8b) on the outside face and wherein the respective absorption layer (8a,8b) is coupled in an electrically conductive manner to the electrode and the counter electrode, respectively, by means of the respective intermediate layer (10a, 10b), - wherein the scintillation layer is accommodated in a sandwich-like manner between the two photodiodes (6a,6b), wherein the scintillation layer is arranged between the first photoactive absorption layer and the second photoactive absorption layer. - wherein one of the photodiodes comprises a first photoactive absorption layer contacted by an electrode and the other of the photodiodes comprises a second photoactive absorption layer contacted by a counter electrode, - wherein the one photodiode comprises a first electrically conductive intermediate layer, wherein the other photodiode comprises a second electrically conductive intermediate layer, wherein the respective intermediate layer (10a, 10b) is arranged such that it adjoins the respective absorption layer (8a,8b) on the outside face and wherein the respective absorption layer (8a,8b) is coupled in an electrically conductive manner to the electrode and the counter electrode, respectively, by means of the respective intermediate layer (10a, 10b), - wherein the scintillation layer is accommodated in a sandwich-like manner between the two photodiodes (6a,6b), wherein the scintillation layer is arranged between the first photoactive absorption layer and the second photoactive absorption layer.