mhurhangee/ep-ind-claims huggingface dataset:
A furnace assembly (1; 1-1; 1-2; 1-3; 1-4) for a metal-making process, comprising: an electric arc furnace configured for flat bath operation and having a bottom, and an electromagnetic stirrer configured to be arranged underneath the bottom of the electric arc furnace to enable stirring of molten metal in the electric arc furnace, wherein a metal-charging region is located off-centre with respect to a centre point of the bottom of the electric arc furnace, and wherein the electromagnetic stirrer comprises coils configured to generate a traveling magnetic wave in a first direction along a stirring direction axis, wherein the electromagnetic stirrer is configured to be arranged so relative to a central plane extending through the centre of the electric arc furnace and through a tapping hole or spout of the electric arc furnace that the stirring direction axis is at an angle (α) relative to the central plane, wherein the stirring direction axis intersects the central plane. an electric arc furnace configured for flat bath operation and having a bottom, and an electromagnetic stirrer configured to be arranged underneath the bottom of the electric arc furnace to enable stirring of molten metal in the electric arc furnace, wherein a metal-charging region is located off-centre with respect to a centre point of the bottom of the electric arc furnace, and wherein the electromagnetic stirrer comprises coils configured to generate a traveling magnetic wave in a first direction along a stirring direction axis, wherein the electromagnetic stirrer is configured to be arranged so relative to a central plane extending through the centre of the electric arc furnace and through a tapping hole or spout of the electric arc furnace that the stirring direction axis is at an angle (α) relative to the central plane, wherein the stirring direction axis intersects the central plane.
Method for operating an exhaust gas purification system, of a motor vehicle internal combustion engine, having an SCR catalyst for the selective catalytic reduction of nitrogen oxides, wherein an ammonia-containing reductant is added to the exhaust gas at a predefinable dosing rate resulting from a base value and an adaptation factor that corrects the base value, wherein from time to time a test procedure is carried out for checking and possibly adapting the adaptation factor, characterised in that during the test procedure a first nitrogen oxide value of the exhaust gas is compared with a second nitrogen oxide value of the exhaust gas, wherein the first nitrogen oxide value and the second nitrogen oxide value are determined with one and the same nitrogen oxide sensor arranged downstream from the SCR catalyst, wherein the first nitrogen oxide value is determined when the dosing of the reductant is switched off and the second nitrogen oxide value is determined during dosing of the reductant at a predefinable test dosing rate (D P).
A method of manufacturing a nanorod, the method comprising: providing a growth substrate and a support substrate; epitaxial growing a nanomaterial layer on one surface of the growth substrate; forming a sacrificial layer on one surface of the support substrate; bonding the nanomaterial layer to the sacrificial layer; separating the growth substrate from the nanomaterial layer; flattening the nanomaterial layer; etching the nanomaterial layer to form a nanorod; and separating the nanorod by removing the sacrificial layer. providing a growth substrate and a support substrate; epitaxial growing a nanomaterial layer on one surface of the growth substrate; forming a sacrificial layer on one surface of the support substrate; bonding the nanomaterial layer to the sacrificial layer; separating the growth substrate from the nanomaterial layer; flattening the nanomaterial layer; etching the nanomaterial layer to form a nanorod; and separating the nanorod by removing the sacrificial layer.
A power module comprising: a power substrate; a first power switching terminal and a second power switching terminal; and a plurality of power semiconductor devices (16; 28, 30) on the power substrate, the plurality of power semiconductor devices (16; 28, 30) comprising: • at least one insulated gate bipolar junction transistor, IGBT; and • at least one metal-oxide-semiconductor field-effect transistor, MOSFET, wherein: • the at least one IGBT comprises a number of IGBT semiconductor die coupled in parallel; • the at least one MOSFET comprises a number of MOSFET semiconductor die coupled in parallel, wherein the number of MOSFET semiconductor die is greater than the number of IGBT semiconductor die; • the at least one IGBT and the at least one MOSFET are coupled in parallel between the first power switching terminal and the second power switching terminal; and • the at least one IGBT and the at least one MOSFET are silicon carbide semiconductor devices. a power substrate; a first power switching terminal and a second power switching terminal; and a plurality of power semiconductor devices (16; 28, 30) on the power substrate, the plurality of power semiconductor devices (16; 28, 30) comprising: • at least one insulated gate bipolar junction transistor, IGBT; and • at least one metal-oxide-semiconductor field-effect transistor, MOSFET, wherein: • the at least one IGBT comprises a number of IGBT semiconductor die coupled in parallel; • the at least one MOSFET comprises a number of MOSFET semiconductor die coupled in parallel, wherein the number of MOSFET semiconductor die is greater than the number of IGBT semiconductor die; • the at least one IGBT and the at least one MOSFET are coupled in parallel between the first power switching terminal and the second power switching terminal; and • the at least one IGBT and the at least one MOSFET are silicon carbide semiconductor devices. • at least one insulated gate bipolar junction transistor, IGBT; and • at least one metal-oxide-semiconductor field-effect transistor, MOSFET, wherein: • the at least one IGBT comprises a number of IGBT semiconductor die coupled in parallel; • the at least one MOSFET comprises a number of MOSFET semiconductor die coupled in parallel, wherein the number of MOSFET semiconductor die is greater than the number of IGBT semiconductor die; • the at least one IGBT and the at least one MOSFET are coupled in parallel between the first power switching terminal and the second power switching terminal; and • the at least one IGBT and the at least one MOSFET are silicon carbide semiconductor devices. • the at least one IGBT comprises a number of IGBT semiconductor die coupled in parallel; • the at least one MOSFET comprises a number of MOSFET semiconductor die coupled in parallel, wherein the number of MOSFET semiconductor die is greater than the number of IGBT semiconductor die; • the at least one IGBT and the at least one MOSFET are coupled in parallel between the first power switching terminal and the second power switching terminal; and • the at least one IGBT and the at least one MOSFET are silicon carbide semiconductor devices.
A salt which is 2-fluoro-N-methyl-4-[7-(quinolin-6-ylmethyl)imidazo[1,2-b][1,2,4]triazin-2-yl]benzamide dihydrochloric acid salt, or a hydrate or solvate thereof.
An eNB operable to perform downlink scheduling, the eNB having one or more processors configured to: identify one or more subframes within a defined frame of a primary cell to perform cross-subframe scheduling for a secondary cell, wherein the primary cell is configured to communicate with a user equipment using a licensed band and the secondary cell is configured to communicate with the user equipment using an unlicensed band; and perform the cross-subframe scheduling for one or more downlink subframes of the secondary cell using the one or more subframes of the primary cell; wherein the subframes of the primary cell are not aligned with subframes of the secondary cell; wherein the one or more processors are further configured to perform the cross-subframe scheduling for a plurality of consecutive downlink subframes of the secondary cell using multiple DCIs from a single subframe of the primary cell, wherein each downlink subframe of the secondary cell is scheduled using a single DCI, and a subframe indicator field is used by re-interpreting a legacy DCI format field to indicate an index of the downlink subframe of the secondary cell for which the cross-subframe scheduling is performed using the DCI. identify one or more subframes within a defined frame of a primary cell to perform cross-subframe scheduling for a secondary cell, wherein the primary cell is configured to communicate with a user equipment using a licensed band and the secondary cell is configured to communicate with the user equipment using an unlicensed band; and perform the cross-subframe scheduling for one or more downlink subframes of the secondary cell using the one or more subframes of the primary cell; wherein the subframes of the primary cell are not aligned with subframes of the secondary cell; wherein the one or more processors are further configured to perform the cross-subframe scheduling for a plurality of consecutive downlink subframes of the secondary cell using multiple DCIs from a single subframe of the primary cell, wherein each downlink subframe of the secondary cell is scheduled using a single DCI, and a subframe indicator field is used by re-interpreting a legacy DCI format field to indicate an index of the downlink subframe of the secondary cell for which the cross-subframe scheduling is performed using the DCI.
An assist grip attached to an inside of a vehicle cabin of an automobile, comprising: a grip main member including a pair of concave portions formed on two ends in a longitudinal direction, and a pair of groove portions (30, 40) formed at sections opposing in the longitudinal direction on each peripheral wall of the concave portions; hinges, each including a pair of upright portions (52, 53) housed in each concave portion and separated by a predetermined interval, and a pair of turning shafts (52a, 53a) protruding from two outer sides of the upright portions (52, 53) and formed to respectively pass through the pair of groove portions (30, 40); a bearing concave portion provided in one of the pair of groove portions (30, 40), one end of one of the pair of turning shafts (52a, 53a) being inserted into a terminal portion of the one of the groove portions (30, 40); and a stopper member preventing a disconnection of the turning shaft (52a, 53a) from a rotational shaft insertion state wherein said one end of the turning shaft (52a, 53a) is inserted into the bearing concave portion. a grip main member including a pair of concave portions formed on two ends in a longitudinal direction, and a pair of groove portions (30, 40) formed at sections opposing in the longitudinal direction on each peripheral wall of the concave portions; hinges, each including a pair of upright portions (52, 53) housed in each concave portion and separated by a predetermined interval, and a pair of turning shafts (52a, 53a) protruding from two outer sides of the upright portions (52, 53) and formed to respectively pass through the pair of groove portions (30, 40); a bearing concave portion provided in one of the pair of groove portions (30, 40), one end of one of the pair of turning shafts (52a, 53a) being inserted into a terminal portion of the one of the groove portions (30, 40); and a stopper member preventing a disconnection of the turning shaft (52a, 53a) from a rotational shaft insertion state wherein said one end of the turning shaft (52a, 53a) is inserted into the bearing concave portion.
A genetically modified microorganism for in vivo synthesis of lacto-N-tetrose or lacto-N-neotetrose in a microorganism, said microorganism comprising (i) a first transgene coding for β1,3- N- acetylglucosaminyltransferase, and (ii) a second transgene coding for β1,3-galactosyltransferase or for β1,4-galactosyltransferase, and said microorganism in addition being genetically modified so as to suppress expression of LacZ and LacA, wherein the (i) first transgene has been integrated into the LacZYA locus and said microorganism comprises a further transgene coding for LacY. (i) a first transgene coding for β1,3- N- acetylglucosaminyltransferase, and (ii) a second transgene coding for β1,3-galactosyltransferase or for β1,4-galactosyltransferase, and said microorganism in addition being genetically modified so as to suppress expression of LacZ and LacA, wherein the (i) first transgene has been integrated into the LacZYA locus and said microorganism comprises a further transgene coding for LacY.
A system for analyzing a sample using variable mass selection window widths, comprising: a tandem mass spectrometer that includes a mass analyzer, and a processor in communication with the tandem mass spectrometer; characterized in that: the mass analyzer allows variable mass selection window widths across a mass range of a sample; and the processor is configured to instruct the tandem mass spectrometer to perform at least two fragmentation scans of at least two variable mass selection window widths with different mass selection window widths across the mass range of the sample in a single scan of the mass range. a tandem mass spectrometer that includes a mass analyzer, and a processor in communication with the tandem mass spectrometer; the mass analyzer allows variable mass selection window widths across a mass range of a sample; and the processor is configured to instruct the tandem mass spectrometer to perform at least two fragmentation scans of at least two variable mass selection window widths with different mass selection window widths across the mass range of the sample in a single scan of the mass range.
A transistor comprising: a source region, a drain region and a semi conductive substrate, the source and drain regions being disposed on the semi conductive substrate; a semi conductive channel formed between the source and drain regions, a portion of the semi conductive channel comprising a fin; a gate structure covering a surface of the fin, the semi conductive channel further comprising a drift region coupled between the fin and the drain region, wherein: the source and drain regions comprise diamond doped at a first amount; and the semi conductive channel comprises diamond doped at a second amount, wherein the first amount is larger than the second amount; wherein the diamond doped at a first amount is doped with a P-type dopant and the diamond doped at the second amount is doped with a P-type dopant; or wherein the diamond doped at the first amount is doped with an N-type dopant and the diamond doped at the second amount is doped with an N-type dopant. a source region, a drain region and a semi conductive substrate, the source and drain regions being disposed on the semi conductive substrate; a semi conductive channel formed between the source and drain regions, a portion of the semi conductive channel comprising a fin; a gate structure covering a surface of the fin, the semi conductive channel further comprising a drift region coupled between the fin and the drain region, wherein: the source and drain regions comprise diamond doped at a first amount; and the semi conductive channel comprises diamond doped at a second amount, wherein the first amount is larger than the second amount; wherein the diamond doped at a first amount is doped with a P-type dopant and the diamond doped at the second amount is doped with a P-type dopant; or wherein the diamond doped at the first amount is doped with an N-type dopant and the diamond doped at the second amount is doped with an N-type dopant. the source and drain regions comprise diamond doped at a first amount; and the semi conductive channel comprises diamond doped at a second amount, wherein the first amount is larger than the second amount; wherein the diamond doped at a first amount is doped with a P-type dopant and the diamond doped at the second amount is doped with a P-type dopant; or wherein the diamond doped at the first amount is doped with an N-type dopant and the diamond doped at the second amount is doped with an N-type dopant.
A process to functionalize polyolefins comprising contacting a transition metal amide catalyst with a secondary amine, and one or more vinyl terminated polyolefins, wherein the functionalized polyolefin is an amine-functionalized polyolefin represented by the formula: where R 1 is either hydrogen, or a C 1 to C 18 group; R 2 and R 3 are each, independently hydrogen or a C 1 to C 20 group; R 4 is an aryl or alkyl group, preferably a C 1 to C 20 alkyl or C 6 to C 20 aryl group; and x is a number greater than 12.
A method for decomposing nicotine, the method comprising a step (a) of irradiating ultraviolet light in a target room allowing smoking, characterized in that ultraviolet light with a main peak wavelength of 200 nm to 230 nm is irradiated to decompose the nicotine.
Method for lifting a movable bridge element with a bridge-moving vehicle, wherein a moving arm of the bridge-moving vehicle is aligned with the bridge element, and, for the alignment, the position of the bridge element to be lifted is sensed by means of a sensing device of the bridge-moving vehicle, characterized in that a route for approaching the bridge element is determined, and in that, on the basis of the route, a handling instruction for aligning the moving arm of the bridge-moving vehicle with the bridge element is determined and is acoustically and/or optically displayed to the vehicle driver.
A device for sampling exhaled air of a patient, the device comprising: an endotracheal tube (120, 410) comprising a ventilation passageway, a proximal end to be connected to a connection hub and a distal end to be placed inside a patient oropharyngeal cavity; a sampling probe (130, 230, 420) for sampling exhaled air of a patient, said sampling probe comprising a sampling conduit (133, 233) and being mounted within the endotracheal tube, wherein a proximal end of the sampling probe is adapted to be connected to a fluid analyser and a distal end is adapted to receive samples of exhaled air, such that the sampling probe is adapted to convey the samples to the fluid analyser, and wherein such distal end is placed at the distal end of the endotracheal tube (120, 410), wherein the distal end of the sampling probe (130, 230, 420) is arranged separate and away from the inner wall of the endotracheal tube (120, 410) and wherein an internal diameter of the sampling conduit (133, 233) is equal to or lower than 3 mm, characterized in that it further comprises a heating element to heat at least a portion of the sampling conduit, the heating element comprising a resistor (210, 310, 311) coiled around the sampling conduit (133, 233), wherein at least part of the heated portion of the sampling probe is configured to be placed inside the patient, wherein the maximum temperature of the portion of the sampling probe to be placed within the patient is between 37°C and 50°C. an endotracheal tube (120, 410) comprising a ventilation passageway, a proximal end to be connected to a connection hub and a distal end to be placed inside a patient oropharyngeal cavity; a sampling probe (130, 230, 420) for sampling exhaled air of a patient, said sampling probe comprising a sampling conduit (133, 233) and being mounted within the endotracheal tube, wherein a proximal end of the sampling probe is adapted to be connected to a fluid analyser and a distal end is adapted to receive samples of exhaled air, such that the sampling probe is adapted to convey the samples to the fluid analyser, and wherein such distal end is placed at the distal end of the endotracheal tube (120, 410), wherein the distal end of the sampling probe (130, 230, 420) is arranged separate and away from the inner wall of the endotracheal tube (120, 410) and wherein an internal diameter of the sampling conduit (133, 233) is equal to or lower than 3 mm, characterized in that it further comprises a heating element to heat at least a portion of the sampling conduit, the heating element comprising a resistor (210, 310, 311) coiled around the sampling conduit (133, 233), wherein at least part of the heated portion of the sampling probe is configured to be placed inside the patient, wherein the maximum temperature of the portion of the sampling probe to be placed within the patient is between 37°C and 50°C.
A kit of parts for building a support base for in use supporting a pole-like element in an upright position, the kit of parts comprises at least three substantially L-shaped elements, each L-shaped element having three integral sections, namely an upright part suitable to extend along a body portion of the pole-like element in a direction parallel to a longitudinal axis (z) of the pole-like element and a foot part connected to said upright part by means of a right-angled part, such that the foot part in use extends outwardly from a lowermost portion of the pole-like element, wherein the kit of parts further comprises a first holding means (17,18,36,40,50) for holding and urging each L-shaped element towards the pole-like element, characterized in that a base element suitable to accommodate the pole like element is provided, where the base element includes either: - a number of channels extending radially from a centre portion of the base element, wherein each channel is formed such as to accommodate at least a portion of the right-angled part of a L-shaped element; or - a number of projections extending radially from a centre portion of the base element, wherein each projection comprises, at a free-end a first element of a fastening means for engaging with a second element of the fastening means, said second element being arranged at the right-angled part of each L-shaped element; or - a ring element (17,21) in use arranged outside and circumscribing the L-shaped elements, said ring element (17,21) comprising means to urge the ring element (17,21) against the L-shaped elements, and optionally cut-outs are provided such that a part of the right-angled part and/or the foot part can pass through the cut-outs in the ring element (17,21) in the use situation. - a number of channels extending radially from a centre portion of the base element, wherein each channel is formed such as to accommodate at least a portion of the right-angled part of a L-shaped element; or - a number of projections extending radially from a centre portion of the base element, wherein each projection comprises, at a free-end a first element of a fastening means for engaging with a second element of the fastening means, said second element being arranged at the right-angled part of each L-shaped element; or - a ring element (17,21) in use arranged outside and circumscribing the L-shaped elements, said ring element (17,21) comprising means to urge the ring element (17,21) against the L-shaped elements, and optionally cut-outs are provided such that a part of the right-angled part and/or the foot part can pass through the cut-outs in the ring element (17,21) in the use situation.