mhurhangee/ep-ind-claims huggingface dataset:
A detector, comprising: a plurality of pixels, wherein the detector is configured to count numbers of X-ray photons that are incident on each pixel of the plurality of pixels and whose energies fall in a plurality of bins, within a period of time; a guard ring (115; 211; 212) comprising a plurality of segments, wherein the detector is configured to detect charge carriers collected by the segments; the detector being characterized in further comprising a controller (336; 346) configured to detect charge sharing between at least one pixel of the plurality of pixels and at least one segment of the guard ring. a plurality of pixels, wherein the detector is configured to count numbers of X-ray photons that are incident on each pixel of the plurality of pixels and whose energies fall in a plurality of bins, within a period of time; a guard ring (115; 211; 212) comprising a plurality of segments, wherein the detector is configured to detect charge carriers collected by the segments; the detector being characterized in further comprising a controller (336; 346) configured to detect charge sharing between at least one pixel of the plurality of pixels and at least one segment of the guard ring.
Device for attaching a handle on a cap of a cooking utensil comprising a dowel adapted to be attached on the first front end thereof to the cap of the cooking utensil and comprising an opening to the second rear end, a handle of which one end comprises at least one protrusion (31, 32) forming a housing which is adapted to receive the dowel and which is extended by a through-hole enabling the passage of a screw and the insertion thereof into the opening of the dowel, a baseplate which is adapted to surround the dowel and the protrusion (31, 32) of the handle and which longitudinally connects the handle to the cap of the cooking utensil; the protrusion(s) (31, 32) of the handle contacting either side of the dowel in a lateral transversal axis to enable a specific and direct positioning of the handle on the dowel in a horizontal transversal direction characterised in that the baseplate comprises means for positioning in a vertical transversal axis against the dowel and against the handle to enable a positioning of the handle to be achieved directly by the baseplate on the dowel in the vertical transversal direction.
A method of fabricating a part by selectively melting powder, the method comprising the following steps: • depositing a first layer of a first powder having a first element as its main element; • depositing, on the first layer, a second layer of a second powder having a second element as its main element, which second element is different from the first element; and • moving a first energy beam, e.g. a laser beam or an electron beam, over the second layer, the energy delivered by the first beam serving to initiate an exothermic reaction between the first element and the second element, the energy given off by the exothermic reaction acting to locally melt together the first and second layers (12, 15). • depositing a first layer of a first powder having a first element as its main element; • depositing, on the first layer, a second layer of a second powder having a second element as its main element, which second element is different from the first element; and • moving a first energy beam, e.g. a laser beam or an electron beam, over the second layer, the energy delivered by the first beam serving to initiate an exothermic reaction between the first element and the second element, the energy given off by the exothermic reaction acting to locally melt together the first and second layers (12, 15).
A V alloy target comprising: V and Mo, wherein an average value of Vickers hardness on an erosion surface is in a range of 250 to 350 HV, and a variation in Vickers hardness measured at 5 measurement points is 20% or less, wherein the V alloy target contains 10 to 50 at% of Mo with a remainder including V and inevitable impurities, the V alloy target is obtained by pressure-sintering a powder mixture of pure metal powders or alloy powders mixed together or a single type of powder in which a final composition is adjusted such that the aforementioned constituent composition is obtained, and the variation is determined by the following formula: a maximum value of the measurement points − a minimum value of the measurement points / the maximum value of the measurement points + the minimum value of the measurement points × 100 %. the V alloy target contains 10 to 50 at% of Mo with a remainder including V and inevitable impurities, the V alloy target is obtained by pressure-sintering a powder mixture of pure metal powders or alloy powders mixed together or a single type of powder in which a final composition is adjusted such that the aforementioned constituent composition is obtained, and the variation is determined by the following formula: a maximum value of the measurement points − a minimum value of the measurement points / the maximum value of the measurement points + the minimum value of the measurement points × 100 %.
A generally cylindrical semisubmersible net cage comprising a generally circular upper support structure, a generally circular lower support structure, at least three peripheral columns having a central longitudinal axis extending between the upper support structure and the lower support structure, upper radial support arms extending from the generally circular upper support structure to an upper centre thereof, lower radial support arms extending from the generally circular lower support structure to a lower centre thereof, a central column attached to the upper radial support arms and the lower radial support arms, extending between the centre of the upper support structure and the centre of the lower support structure; a water-permeable generally cylindrical lateral barrier extended between the upper support structure and the generally circular lower support structure, and a water-permeable generally circular bottom barrier extended along a circumference of the generally circular lower support structure; a first fixed bulkhead having a first removable barrier, extending radially between the central column, the generally circular upper support structure, and the generally circular lower support structure; a sliding bulkhead having a removable barrier, pivotally supported at the central column and extending in a radial direction between the central column, the generally circular upper support structure, and the generally circular lower support structure, the sliding bulkhead being rotatable about the central column; ballast tanks for lifting, lowering and balancing the generally cylindrical semisubmersible net cage; said net cage being characterized in that it further comprises a second fixed bulkhead having a second removable barrier, extending radially between the central column, the generally circular upper support structure, and the generally circular lower support structure; and that it further comprises an elevatable bottom between the first fixed bulkhead and the second fixed bulkhead.
A moving system for transferring workpieces, which are provided for gear cutting on a workpiece spindle and have a workpiece axis of rotation, from a first position, adopted while they are being fed, into a second position that in all cases differs from the first position by a smaller distance between the workpiece axis of rotation and the workpiece spindle axis, wherein the moving system has a first movement unit (36, 32, 34) which transfers a workpiece from the first position to a third position, different from the first and second position, along a first movement path, and a second movement unit which transfers the workpiece from the third position to the second position along a second movement path, wherein the moving system is also designed to transfer machined workpieces back out of the second position and to hold and move more than one workpiece at the same time, characterised in that, while it is being moved on the first and second movement path, the workpiece is held by one and the same holding unit (10; 10') that directly holds the workpiece, without a movement caused by the second movement unit entailing a movement of the first movement unit, and in that the moving system comprises a guide arrangement (26, 16) which guides the holding unit during the movement along the first movement path and moves together with this movement along the second movement path.
A wind turbine comprising: a tower; a nacelle mounted on the tower; a wind turbine rotor with a plurality of blades; and a wind turbine generator operatively coupled with the wind turbine rotor, and further comprising one or more auxiliary wind energy converters embedded in the nacelle, characterized in that the one or more auxiliary wind energy converters are configured to convert mechanical energy of the auxiliary wind energy converter to electrical energy, and furthermore configured to provide at least a part of the electrical energy of the auxiliary wind energy converters to an auxiliary system of the wind turbine and/or to an energy storage element. a tower; a nacelle mounted on the tower; a wind turbine rotor with a plurality of blades; and a wind turbine generator operatively coupled with the wind turbine rotor, and further comprising one or more auxiliary wind energy converters embedded in the nacelle, characterized in that the one or more auxiliary wind energy converters are configured to convert mechanical energy of the auxiliary wind energy converter to electrical energy, and furthermore configured to provide at least a part of the electrical energy of the auxiliary wind energy converters to an auxiliary system of the wind turbine and/or to an energy storage element.
A carbon dioxide sensor comprising: an electrode pair; and, an electrically conductive sensing material in contact with the electrode pair, the sensing material comprising a film of carbon nanotubes functionalized with a compound of Formula: where Ar is one or more units of indigo, a fluorene, a thiophene, a phenylenevinylene, a bithiophene, a phenylene, a bipyridine, an anthracene, a naphthalene or a benzothiadiazole and n is an integer 3 or greater. an electrode pair; and, an electrically conductive sensing material in contact with the electrode pair, the sensing material comprising a film of carbon nanotubes functionalized with a compound of Formula: where Ar is one or more units of indigo, a fluorene, a thiophene, a phenylenevinylene, a bithiophene, a phenylene, a bipyridine, an anthracene, a naphthalene or a benzothiadiazole and n is an integer 3 or greater.
An ultrasound imaging apparatus comprising: a display configured to display an ultrasound image; an ultrasound probe configured to transmit an ultrasound signal to an object and receive an ultrasound echo signal; and a controller configured to: obtain a 4D image of a heart at a first position of the object by processing the ultrasound echo signal; obtain a biplane image of the heart, which is a plurality of cross-sectional images acquired at the same time, by placing the probe at a second position different from the first position; when an artifact is detected in the biplane image, extract a second cross-sectional image corresponding to a first cross-sectional image in which the artifact is detected among the biplane images from the 4D image; control the display to display the second cross-sectional image; and identify anatomical features of a region of interest in the first cross-sectional image, and extract the second cross-sectional image comprising the anatomical features of the region of interest from the 4D image. a display configured to display an ultrasound image; an ultrasound probe configured to transmit an ultrasound signal to an object and receive an ultrasound echo signal; and a controller configured to: obtain a 4D image of a heart at a first position of the object by processing the ultrasound echo signal; obtain a biplane image of the heart, which is a plurality of cross-sectional images acquired at the same time, by placing the probe at a second position different from the first position; when an artifact is detected in the biplane image, extract a second cross-sectional image corresponding to a first cross-sectional image in which the artifact is detected among the biplane images from the 4D image; control the display to display the second cross-sectional image; and identify anatomical features of a region of interest in the first cross-sectional image, and extract the second cross-sectional image comprising the anatomical features of the region of interest from the 4D image. obtain a 4D image of a heart at a first position of the object by processing the ultrasound echo signal; obtain a biplane image of the heart, which is a plurality of cross-sectional images acquired at the same time, by placing the probe at a second position different from the first position; when an artifact is detected in the biplane image, extract a second cross-sectional image corresponding to a first cross-sectional image in which the artifact is detected among the biplane images from the 4D image; control the display to display the second cross-sectional image; and identify anatomical features of a region of interest in the first cross-sectional image, and extract the second cross-sectional image comprising the anatomical features of the region of interest from the 4D image.
A vehicle front portion structure comprising: front side members that are disposed at right and left side portions of a vehicle front portion and extend in a vehicle front and rear direction; suspension towers that are disposed so as to project in a vehicle upward direction from the front side members; front joining portions that are provided at the suspension towers and join the suspension towers and the front side members to each other, and at which the joint between the suspension towers and the front side members is configured to break at a time of a frontal impact; and rear joining portions that are provided at vehicle rear sides of the front joining portions in the suspension towers and that join the suspension towers and the front side members to each other; and characterized in that it comprises a suspension member that is attached by attachment portions (16H-2) to the front side members, wherein the attachment portions are disposed in positions coinciding in the vehicle front and rear direction with the rear joining portions. front side members that are disposed at right and left side portions of a vehicle front portion and extend in a vehicle front and rear direction; suspension towers that are disposed so as to project in a vehicle upward direction from the front side members; front joining portions that are provided at the suspension towers and join the suspension towers and the front side members to each other, and at which the joint between the suspension towers and the front side members is configured to break at a time of a frontal impact; and rear joining portions that are provided at vehicle rear sides of the front joining portions in the suspension towers and that join the suspension towers and the front side members to each other; and characterized in that it comprises a suspension member that is attached by attachment portions (16H-2) to the front side members, wherein the attachment portions are disposed in positions coinciding in the vehicle front and rear direction with the rear joining portions.
A method of preparing lithium titanate nanoparticles, the method comprising: feeding reactants comprising lithium and titanium into a reactor, followed by mixing the reactants in the reactor at a molecular level; and generating a crystal nucleus by chemically reacting the reactants in the reactor, wherein a time (T M) for the mixing at the molecular level is shorter than a time (T N) for the generating the crystal nucleus, wherein T M is in a range of 10 to 100 μs and T N is 1 ms or less, wherein a Li 2 TiO 3 peak is not substantially present in an X-ray diffraction pattern of lithium titanate, wherein the lithium titanate nanoparticles have a spinel structure represented by Li 4 Ti 5 O 12. feeding reactants comprising lithium and titanium into a reactor, followed by mixing the reactants in the reactor at a molecular level; and generating a crystal nucleus by chemically reacting the reactants in the reactor, wherein a time (T M) for the mixing at the molecular level is shorter than a time (T N) for the generating the crystal nucleus, wherein T M is in a range of 10 to 100 μs and T N is 1 ms or less, wherein a Li 2 TiO 3 peak is not substantially present in an X-ray diffraction pattern of lithium titanate, wherein the lithium titanate nanoparticles have a spinel structure represented by Li 4 Ti 5 O 12.
A vehicle having a side airbag device comprising: an inflator that is supported at a side frame disposed within a side portion of a seat back, and that supplies gas for inflation and expansion; and a side airbag that has a main bag, that is stored in a folded-up state within the side portion and that inflates and expands toward a vehicle front side of the side portion at a time when the gas for inflation and expansion is supplied thereto, and has an inner bag, that is disposed within the main bag, that supplies supplied gas to the main bag while inflating and expanding due to the gas for inflation and expansion being supplied thereto, and that at a time of inflation and expansion, is positioned further toward a vehicle rear side than a front edge portion (14A1) of the side portion as seen in side view, wherein a communication hole, that communicates an interior of the main bag and an interior of the inner bag, is formed at a lower portion side of the inner bag, and an upper portion side of the inner bag is closed-off, wherein because the upper portion side of the inner bag is closed-off, gas does not flow-out from the upper portion side of the inner bag. an inflator that is supported at a side frame disposed within a side portion of a seat back, and that supplies gas for inflation and expansion; and a side airbag that has a main bag, that is stored in a folded-up state within the side portion and that inflates and expands toward a vehicle front side of the side portion at a time when the gas for inflation and expansion is supplied thereto, and has an inner bag, that is disposed within the main bag, that supplies supplied gas to the main bag while inflating and expanding due to the gas for inflation and expansion being supplied thereto, and that at a time of inflation and expansion, is positioned further toward a vehicle rear side than a front edge portion (14A1) of the side portion as seen in side view, wherein a communication hole, that communicates an interior of the main bag and an interior of the inner bag, is formed at a lower portion side of the inner bag, and an upper portion side of the inner bag is closed-off, wherein because the upper portion side of the inner bag is closed-off, gas does not flow-out from the upper portion side of the inner bag.
A bake stable filling comprising: (a) a liquid component in an amount of 20 wt% to 50 wt% of the filling; and (b) microparticles having a particle size of less than 8 microns; wherein the liquid component includes microparticles in an amount of 1 wt% to 30 wt% of the liquid component, wherein the filling has a water activity of 0.7 to 0.82. (a) a liquid component in an amount of 20 wt% to 50 wt% of the filling; and (b) microparticles having a particle size of less than 8 microns;
A bench for magnetoscopic controlling of a tubular part such as a turbine engine shaft, the bench comprising means for supporting and for rotating the part, a tool of elongate shape carrying endoscopic means for ultraviolet lighting of the inside surface of the part and for observing any defects in the part, and means for supporting and guiding the tool to move in translation so as to be inserted inside the part, characterized in that the tool includes a plurality of external references that are regularly distributed over at least a fraction of its length and defining regular pitches for advancing the tool in translation along the longitudinal axis of the part, the means for supporting and guiding the tool including indexing means co-operating with the references of the tool by clipping in order to control accurately the advance and the position of the tool in the part.
A power converter comprising at least first and second inductor coils (L1, L2), which are to be mutually coupled with corresponding secondary side inductor coils, and at least one modulated drive circuit which is arranged to drive said first and second inductor coils and to introduce a dead time between the switching cycles, and a switching apparatus arranged to switch the first inductor and the second inductor in or out of a series connection; the switching apparatus is characterized in that it comprises: at least one latching circuit having two complementary bipolar transistors (Q1, Q2) connected in a transistor latch configuration along with at least two diodes (D1, D2) to conduct current, such that a diode is connected between the base of each bipolar transistor and the collector of the other bipolar transistor; one or more control circuits connected to the latching circuit for operating the bipolar transistors so as to keep the latching circuit on or off; such that said control circuits provide a constant steady forward bias to said bipolar transistors to keep the latching circuit on or provide a constant steady reverse bias to said bipolar transistors to keep the latching circuit off, the bias being changed only when switching the first inductor and the second inductor in or out of a series connection; and such that to turn on the latching circuit a forward bias voltage is applied during the dead time of the switching cycles and to turn off the latching circuit a reverse bias voltage is applied during the dead time of the switching cycles. at least one latching circuit having two complementary bipolar transistors (Q1, Q2) connected in a transistor latch configuration along with at least two diodes (D1, D2) to conduct current, such that a diode is connected between the base of each bipolar transistor and the collector of the other bipolar transistor; one or more control circuits connected to the latching circuit for operating the bipolar transistors so as to keep the latching circuit on or off; such that said control circuits provide a constant steady forward bias to said bipolar transistors to keep the latching circuit on or provide a constant steady reverse bias to said bipolar transistors to keep the latching circuit off, the bias being changed only when switching the first inductor and the second inductor in or out of a series connection; and such that to turn on the latching circuit a forward bias voltage is applied during the dead time of the switching cycles and to turn off the latching circuit a reverse bias voltage is applied during the dead time of the switching cycles.
A kitchen hood comprising a housing in which exhaust means are fixed, said housing having at least one first aperture leading to the external environment and at least one second aperture leading to the internal environment (Al), comprising valve means able to assume a first position for filtering operation in which they close said first aperture to enable a flow of air drawn from the internal environment (Al) by the exhaust means to be totally fed into the internal environment (Al) after passing through filter means, and a second position for exhausting operation which leaves said first aperture at least partially open to allow a flow of air drawn from the internal environment (Al) by the exhaust means to be at least partially expelled to the external environment, characterised by comprising a first temperature sensor to measure the temperature of the external environment, a second temperature sensor to measure the temperature of the internal environment (Al), and means for calculating the difference between the measured temperatures and for comparing these temperatures to select one of the two operating positions.