mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound system, comprising: an ultrasound data acquisition unit configured to perform a first operation for providing first ultrasound data for forming a color M mode image and a second operation for providing second ultrasound data for forming a brightness M mode image; a control unit configured to control the ultrasound data acquisition unit to perform the first operation by a number of times equal to an ensemble number and the second operation one or more times according to an acquisition pattern within a sweep period to respectively accumulate the first ultrasound data and the second ultrasound data provided from the ultrasound data acquisition unit; and an image processor configured to form the color M mode image based on the accumulated first ultrasound data and to form the brightness M mode image based on the accumulated second ultrasound data, characterized in that the control unit is further configured to calculate a time period expected for the ultrasound data acquisition unit to perform the first and second operations once and to determine the acquisition pattern defining an order of performing the first and second operations based on the calculated time period, the sweep period, and the ensemble number, wherein the acquisition pattern is a pattern in which the first operation and the second operation are alternate, if the calculated time period is less than the sweep period divided by the ensemble number. an ultrasound data acquisition unit configured to perform a first operation for providing first ultrasound data for forming a color M mode image and a second operation for providing second ultrasound data for forming a brightness M mode image; a control unit configured to control the ultrasound data acquisition unit to perform the first operation by a number of times equal to an ensemble number and the second operation one or more times according to an acquisition pattern within a sweep period to respectively accumulate the first ultrasound data and the second ultrasound data provided from the ultrasound data acquisition unit; and an image processor configured to form the color M mode image based on the accumulated first ultrasound data and to form the brightness M mode image based on the accumulated second ultrasound data, characterized in that the control unit is further configured to calculate a time period expected for the ultrasound data acquisition unit to perform the first and second operations once and to determine the acquisition pattern defining an order of performing the first and second operations based on the calculated time period, the sweep period, and the ensemble number, wherein the acquisition pattern is a pattern in which the first operation and the second operation are alternate, if the calculated time period is less than the sweep period divided by the ensemble number.
An x-ray imaging system comprising: a digital x-ray detector; an array of distributed x-ray generators configured such that adjacent generators (104a, 104b) project overlapping beams (106a, 106b) of radiation onto the same area of the digital x-ray detector if operated simultaneously; a means to selectively control the x-ray emission from groups of generators of the array of distributed x-ray generators to temporally separate physically overlapping beams of adjacent generators (104a, 104b); a means to control the acquisition of a plurality of x-ray image data obtained from the digital x-ray detector; a means of reconstructing the plurality of x-ray image data into a three-dimensional representation; a means of visualizing, analysing and storing the plurality of x-ray image data acquired from the digital x-ray detector; and a means for positioning and alignment of the array of distributed x-ray generators relative to the digital x-ray detector and a patient positioned between the array of distributed x-ray generators and the digital x-ray detector, whereby each of the distributed x-ray generators comprises individually powered flat solenoids placed above an electron emitter when energised to selectively either defocus or deflect the electron beam so that the majority of the electrons do not strike a small transmissive bremsstrahlung target placed some distance in front of the emitter. a digital x-ray detector; an array of distributed x-ray generators configured such that adjacent generators (104a, 104b) project overlapping beams (106a, 106b) of radiation onto the same area of the digital x-ray detector if operated simultaneously; a means to selectively control the x-ray emission from groups of generators of the array of distributed x-ray generators to temporally separate physically overlapping beams of adjacent generators (104a, 104b); a means to control the acquisition of a plurality of x-ray image data obtained from the digital x-ray detector; a means of reconstructing the plurality of x-ray image data into a three-dimensional representation; a means of visualizing, analysing and storing the plurality of x-ray image data acquired from the digital x-ray detector; and a means for positioning and alignment of the array of distributed x-ray generators relative to the digital x-ray detector and a patient positioned between the array of distributed x-ray generators and the digital x-ray detector, whereby each of the distributed x-ray generators comprises individually powered flat solenoids placed above an electron emitter when energised to selectively either defocus or deflect the electron beam so that the majority of the electrons do not strike a small transmissive bremsstrahlung target placed some distance in front of the emitter.
A wind turbine, comprising; a substantially tubular tower structure extending from a nacelle to a tower foundation (40, 42), the tower structure comprising a plurality of substantially tubular segments having an exterior wall and an interior wall, the tower foundation (40, 42) comprising an exterior portion and an interior portion; the nacelle mounted atop the tower structure; a rotor coupled to the nacelle, the rotor having one or more rotor blades attached thereto; at least one upper mount extending from the tower structure; at least one lower mount extending from one of the tower structure or the tower foundation (40, 42); at least one damping device comprising an upper connector coupled with the upper mount, a lower connector coupled with the lower mount and at least one damper coupled between the upper connector and the lower connector; and, characterised in that the at least one damping device extends only in a substantially vertical direction. a substantially tubular tower structure extending from a nacelle to a tower foundation (40, 42), the tower structure comprising a plurality of substantially tubular segments having an exterior wall and an interior wall, the tower foundation (40, 42) comprising an exterior portion and an interior portion; the nacelle mounted atop the tower structure; a rotor coupled to the nacelle, the rotor having one or more rotor blades attached thereto; at least one upper mount extending from the tower structure; at least one lower mount extending from one of the tower structure or the tower foundation (40, 42); at least one damping device comprising an upper connector coupled with the upper mount, a lower connector coupled with the lower mount and at least one damper coupled between the upper connector and the lower connector; and, characterised in that the at least one damping device extends only in a substantially vertical direction.
Aqueous benzisothiazoline-3-one dispersion of sodium-1,2-benzisothiazoline-3-one particles dispersed in water, comprising: (a) between 15 wt.-% and 35 wt.-% of sodium-1,2-benzisothiazoline-3-one; and (b) ad. 100 wt.-% of water having a content of sodium ion in the range from 4 wt.- % to 10 wt.-%, with respect to water contained in the dispersion. (a) between 15 wt.-% and 35 wt.-% of sodium-1,2-benzisothiazoline-3-one; and (b) ad. 100 wt.-% of water having a content of sodium ion in the range from 4 wt.- % to 10 wt.-%, with respect to water contained in the dispersion.
A ram bending apparatus of a tube material using a punch and a set of rolls for three-point bending of a tube material, wherein said punch has a groove of a width of the width of said tube material or more in its outer circumstance, said set of rolls is supported by a frame, the punch and the rolls have semicircular shaped grooves (12a, 13a), the grooves (12a,13a) are arranged to grip the tube material between the punch and the rolls, the punch and end parts of the rolls are arranged to mutually contact each other at the outside parts of the grooves (12a, 13a), characterized in that the rolls are arranged to be moved on said frame during bending in directions away from each other by pushing force of the punch in a state contacting said punch, said set of rolls is provided with means for applying a pressing force in a direction bridging the rolls close to each other, the punch is configured to move to the frame side and said frame has a hollow part for enabling said punch and said tube material to freely move during bending of said tube material.
A method for composing a subchannel in a wireless communication system, the method comprising: determining a set of resources for a diversity subchannel by confirming, by a base station, on remaining one or more physical resource units, PRUs, after allocating for a region of a frequency reuse region N and a band selection subchannel of a region of a frequency reuse factor '1' of the subchannel; applying a first permutation to the set of resources, wherein the first permutation is based on a first unit, wherein the first unit comprises one or more physical resource units, PRUs; identifying first resources and second resources among the set of resources to which the first permutation is applied; applying a second permutation to the first resources, wherein the second permutation is based on a second unit, wherein the second unit comprises a tone-pair of adjacent tones; and composing a diversity subchannel in the region of the frequency reuse factor '1' using the first resources to which the second permutation is applied and the second resources, wherein the second unit is smaller than the first unit. determining a set of resources for a diversity subchannel by confirming, by a base station, on remaining one or more physical resource units, PRUs, after allocating for a region of a frequency reuse region N and a band selection subchannel of a region of a frequency reuse factor '1' of the subchannel; applying a first permutation to the set of resources, wherein the first permutation is based on a first unit, wherein the first unit comprises one or more physical resource units, PRUs; identifying first resources and second resources among the set of resources to which the first permutation is applied; applying a second permutation to the first resources, wherein the second permutation is based on a second unit, wherein the second unit comprises a tone-pair of adjacent tones; and composing a diversity subchannel in the region of the frequency reuse factor '1' using the first resources to which the second permutation is applied and the second resources, wherein the second unit is smaller than the first unit.
Acoustic transducer capable of converting an acoustic signal into an electrical signal, comprising an element that is mobile under the effect of said acoustic signal, a fixed element arranged opposite the mobile element, a cavity, and a dissipative element interposed between the mobile element and the fixed element, the coupled system constituted by the mobile element, the dissipative element and the cavity having a natural frequency corresponding to a resonance frequency of the transducer at which its sensitivity is maximum, the mobile element, the fixed element, the dissipative element and the cavity being configured so that the quality factor of the acoustic transducer is greater than two, characterized in that the mobile element is a mobile electrode comprising a deformable membrane, the fixed element is a fixed electrode, and the dissipative element is a resistive element, so that the transducer is a capacitive transducer, the cavity has a general shape of a straight prism or of a cylinder or of a frustum, said prism, respectively said cylinder, respectively said frustum comprising a first base and a second base distinct from the second base, the mobile element forming the first base of the prism, respectively of the cylinder, respectively of the frustum, the fixed element being arranged inside said prism, respectively said cylinder, respectively said frustum, raised with respect to the second base of the prism, respectively of the cylinder, respectively of the frustum.
A system for optically characterizing a specimen (12, 30) having particles, comprising: a holographic microscope; a collimated source in optical communication with the holographic microscope; the holographic microscope having an objective lens and a video eyepiece configured to scatter collimated light from the collimated light source off the specimen to generate a scattered portion; a camera in communication with the holographic microscope adapted for receiving a magnified interference pattern generated from an unscattered portion of the collimated light and the scattered portion; a tangible storage medium readable by a computer and adapted for recording the magnified interference pattern to provide a hologram image for subsequent analysis; a computer and a computer software module including computer software having a set of instructions for operating on the tangible storage medium, wherein the computer sofware module is programmed to normalize the hologram image prior to analysis by dividing the hologram image by a previously recorded background image; analyze the normalized hologram image; and use the analysis of the normalized hologram image to determine at least one of a spatial location, a mechanical property, an optical property and a chemical property of the specimen (12, 30). a holographic microscope; a collimated source in optical communication with the holographic microscope; the holographic microscope having an objective lens and a video eyepiece configured to scatter collimated light from the collimated light source off the specimen to generate a scattered portion; a camera in communication with the holographic microscope adapted for receiving a magnified interference pattern generated from an unscattered portion of the collimated light and the scattered portion; a tangible storage medium readable by a computer and adapted for recording the magnified interference pattern to provide a hologram image for subsequent analysis; a computer and a computer software module including computer software having a set of instructions for operating on the tangible storage medium, wherein the computer sofware module is programmed to normalize the hologram image prior to analysis by dividing the hologram image by a previously recorded background image; analyze the normalized hologram image; and use the analysis of the normalized hologram image to determine at least one of a spatial location, a mechanical property, an optical property and a chemical property of the specimen (12, 30).
A computer configurable from a tablet computer to function as laptop computer using a detachable base, the computer comprising: a computing device casing including a barrel portion, wherein the barrel portion is at least partially cylindrical and substantially extending along a length of one side of the casing; the detachable base; and a first metallic ring, wherein the first metallic ring is aligned and integrated with the barrel portion, the first metallic ring including a surface power contact configured to provide power to the detachable base; wherein the detachable base includes a scoop, wherein the scoop is a concave partially cylindrical section of a similar diameter and length as the barrel portion, and wherein a band segment is integrated with the scoop; characterised in that: the band segment further comprises a rib segment protruding out from the surface of the band segment, the computer further comprising a second metallic ring, wherein the second metallic ring is aligned and integrated with the barrel portion, and wherein the first metallic ring is disposed in a location near the second metallic ring, the relative positions of the first and second metallic rings to define a first slot between the two rings to receive the rib segment and to provide access to at least a location within the diameter of the barrel portion. a computing device casing including a barrel portion, wherein the barrel portion is at least partially cylindrical and substantially extending along a length of one side of the casing; the detachable base; and a first metallic ring, wherein the first metallic ring is aligned and integrated with the barrel portion, the first metallic ring including a surface power contact configured to provide power to the detachable base; wherein the detachable base includes a scoop, wherein the scoop is a concave partially cylindrical section of a similar diameter and length as the barrel portion, and wherein a band segment is integrated with the scoop; characterised in that: the band segment further comprises a rib segment protruding out from the surface of the band segment, the computer further comprising a second metallic ring, wherein the second metallic ring is aligned and integrated with the barrel portion, and wherein the first metallic ring is disposed in a location near the second metallic ring, the relative positions of the first and second metallic rings to define a first slot between the two rings to receive the rib segment and to provide access to at least a location within the diameter of the barrel portion.
A composition, comprising: (a) at least one associative thickener; (b) at least one alkyleneoxide derivative represented by the following chemical formula: Gly-{O s t - u H} 3 wherein Gly denotes a residue obtained by removing hydroxyl groups from glycerin; PO denotes an oxypropylene group; EO denotes an oxyethylene group; s and t denote the average addition mole numbers of PO and EO, respectively, and have a value ranging from 1 to 50; the weight ratio of PO to EO (PO/EO) ranges from 1/5 to 5/1; BO denotes an oxyalkylene group having 4 carbon atoms; and u denotes the average addition mole number of BO, and ranges from 0.5 to 5; (c) at least one nonionic surfactant with an HLB value of 13.0 or less; and (d) water, wherein the (a) associative thickener is a nonionic associative polyurethane/polyether which has both at least one hydrophilic moiety and at least one hydrophobic moiety, and the (c) nonionic surfactant with an HLB value of 13.0 or less is selected from oxyethylenated (1-40 EO) and polyoxypropylenated (5-30 PO) alkyl (C 16 -C 30) ethers, and preferably polyoxyethylenated (15-40 EO) and polyoxypropylenated (5-30 PO) alkyl (C 16 -C 24) ethers. (a) at least one associative thickener; (b) at least one alkyleneoxide derivative represented by the following chemical formula: Gly-{O s t - u H} 3 wherein Gly denotes a residue obtained by removing hydroxyl groups from glycerin; PO denotes an oxypropylene group; EO denotes an oxyethylene group; s and t denote the average addition mole numbers of PO and EO, respectively, and have a value ranging from 1 to 50; the weight ratio of PO to EO (PO/EO) ranges from 1/5 to 5/1; BO denotes an oxyalkylene group having 4 carbon atoms; and u denotes the average addition mole number of BO, and ranges from 0.5 to 5; Gly denotes a residue obtained by removing hydroxyl groups from glycerin; PO denotes an oxypropylene group; EO denotes an oxyethylene group; s and t denote the average addition mole numbers of PO and EO, respectively, and have a value ranging from 1 to 50; the weight ratio of PO to EO (PO/EO) ranges from 1/5 to 5/1; BO denotes an oxyalkylene group having 4 carbon atoms; and u denotes the average addition mole number of BO, and ranges from 0.5 to 5; (c) at least one nonionic surfactant with an HLB value of 13.0 or less; and (d) water,
An anomaly identifier for identifying an abnormal activity in a telecommunications network, wherein the anomaly identifier comprises a receiver unit configured to receive a plurality of network measurements in relation to the telecommunications network; a model-based mapping unit configured to map the received plurality of network measurements via a machine-trained prediction model to an anomaly prediction indicator, wherein the prediction model is trained to predict the radio environment at a prospective measurement time slot, and an output unit configured to provide the anomaly prediction indicator, which indicates the prediction of the abnormal activity in the telecommunications network, wherein the anomaly prediction indicator is provided in dependence to a comparison of network measurements and the predicted radio environment. a receiver unit configured to receive a plurality of network measurements in relation to the telecommunications network; a model-based mapping unit configured to map the received plurality of network measurements via a machine-trained prediction model to an anomaly prediction indicator, wherein the prediction model is trained to predict the radio environment at a prospective measurement time slot, and an output unit configured to provide the anomaly prediction indicator, which indicates the prediction of the abnormal activity in the telecommunications network, wherein the anomaly prediction indicator is provided in dependence to a comparison of network measurements and the predicted radio environment.
Tool head for machining workpieces at high rotational speeds, having a base body which can rotate about an axis and which, together with a clamping jaw, forms a radially outwardly extending receptacle for the end section of a blade opposite the cutting edge, wherein the blade forms exactly one positioning surface which interacts in the pull-out direction with a positioning stop of a positioning key of the base body in such a way that the positioning surface of the blade engages behind the positioning stop of the positioning key in such a way, that, on the one hand, the blade is secured in the pull-out direction, and, on the other hand, the blade remains displaceable in the insertion direction before the frictional connection acts in the pull-out direction, and that a pretensioning element for pressing the blade onto the positioning key and against its positioning stop is provided for tensioning, wherein the pretensioning element projects into the receptacle when the clamping jaw is open such that the end section of the blade is prevented from being inserted further beyond the pretensioning element and the pretensioning element nevertheless presses the blade onto the positioning key during the clamping process.