mhurhangee/ep-ind-claims huggingface dataset:
A permanent magnet machine comprising: a rotor including a rotor hub; a plurality of permanent magnets embedded in the rotor in a circumferential pattern, wherein the rotor includes a respective bridge between each circumferentially adjacent pair of the permanent magnets, wherein each bridge is of a different material than that of the rotor hub, and wherein the rotor hub and bridges are integral with one another, wherein the rotor includes first transition regions between each bridge and the rotor hub, and second transition regions between each bridge and each pole portion circumferentially adjacent to the bridge, wherein the material of the bridge transitions into that of the rotor hub and the pole portion respectively, characterized in that, the locations of the second transition regions are such that ends of the permanent magnets are sandwiched radially between the second transition regions and the rotor hub, with the rotor hub positioned radially inward of the permanent magnets and the second transition regions positioned radially outward of the permanent magnets, radially on the opposite side to the rotor hub. a rotor including a rotor hub; a plurality of permanent magnets embedded in the rotor in a circumferential pattern, wherein the rotor includes a respective bridge between each circumferentially adjacent pair of the permanent magnets, wherein each bridge is of a different material than that of the rotor hub, and wherein the rotor hub and bridges are integral with one another, wherein the rotor includes first transition regions between each bridge and the rotor hub, and second transition regions between each bridge and each pole portion circumferentially adjacent to the bridge, wherein the material of the bridge transitions into that of the rotor hub and the pole portion respectively, characterized in that, the locations of the second transition regions are such that ends of the permanent magnets are sandwiched radially between the second transition regions and the rotor hub, with the rotor hub positioned radially inward of the permanent magnets and the second transition regions positioned radially outward of the permanent magnets, radially on the opposite side to the rotor hub.
A drug delivery device comprising a cartridge holder having a distal end and a proximal end, a body member and a needle unit, the cartridge holder comprising a connecting piece located at the proximal end for attaching the cartridge holder to the body member and a needle hub located at the distal end for attaching the needle unit to the cartridge holder, wherein either the connecting piece or the needle hub are configured as a coupling housing portion (13, 14) in which a cartridge can be inserted at least partly, the coupling housing portion (13, 14) being configured to be coupled to the body member or the needle unit, respectively, by inserting the coupling housing portion (13, 14) in the body member or the needle unit, respectively, a fixing member being connected with the coupling housing portion (13, 14), the fixing member being flexible and integrally formed with the coupling housing portion (13, 14) and having an inner side and an outer side, the fixing member being further movable radially inwardly with respect to the coupling housing portion (13, 14) to a position in which the fixing member is suitable for securing the cartridge against distal displacement of the cartridge, wherein the fixing member can be moved towards the longitudinal axis of the cartridge holder into a space which is provided for the cartridge when inserted in the cartridge holder, so that the inner side abuts on the cartridge when a force impacts on the outer side by the body member or the needle unit, respectively, abutting on the outer side.
A combination vaccine for the prophylaxis of cattle against microbiological infections, wherein said combination vaccine comprises a. one or more attenuated BVDV, having at least one mutation in the coding sequence for glycoprotein E rns and at least another mutation in the coding sequence for N pro, wherein said mutation(s) in the coding sequence for glycoprotein E rns lead(s) to inactivation of RNase activity residing in E rns and said mutation(s) in the coding sequence for N pro lead(s) to inactivation of said N pro; and b. one or more immunological active component(s) effective for the prophylaxis of microbiological infection in cattle caused by a bovine pathogen other than BVDV, wherein the immunological active component is an attenuated microorganism, a killed microorganism, or at least an immunological part of a microorganism. a. one or more attenuated BVDV, having at least one mutation in the coding sequence for glycoprotein E rns and at least another mutation in the coding sequence for N pro, wherein said mutation(s) in the coding sequence for glycoprotein E rns lead(s) to inactivation of RNase activity residing in E rns and said mutation(s) in the coding sequence for N pro lead(s) to inactivation of said N pro; and b. one or more immunological active component(s) effective for the prophylaxis of microbiological infection in cattle caused by a bovine pathogen other than BVDV, wherein the immunological active component is an attenuated microorganism, a killed microorganism, or at least an immunological part of a microorganism.
Assembly for an aircraft and comprising: - a wing comprising an airfoil box partly produced using a front spar; - a mounting pylon arranged under the wing and comprising a primary structure in the form of a primary box having a top spar extending at least partly under the airfoil box and having a slit, a bottom spar, lateral panels and a transverse reinforcing rib, called fixing rib, of which a bottom part is housed and fixed inside the primary structure and of which a top part passes through the slit; - fixing means which ensure the fixing of the top part to the front spar and where the fixing means comprise a plurality of fixing bolts, where each fixing bolt fixes the top part to the front spar and has its axis at right angles to the fixing rib; characterized in that the assembly comprises additional fixing means arranged between the top spar and the fixing rib, the additional fixing means comprising a first central angle iron fixed to the top spar by first bolts with axis at right angles to the top spar, a second central angle iron facing the first central angle iron and fixed to the front spar by second bolts, where the first central angle iron and the second central angle iron are arranged on either side of the fixing rib, and additional bolts with axis at right angles to the fixing rib which fix the second central angle iron to the first central angle iron through the fixing rib; where the additional fixing means comprise, on either side of the first central angle iron, a first ply (456a-b) of the top spar, where each of the first plies (456a-b) has an inner face bearing against a face of the fixing rib; two second plies (459a-b), where each second ply (459a-b) is arranged facing a first ply (456a-b) and has an inner face bearing against the other face of the fixing rib; and through bolts which pass through the fixing rib and the two facing plies (456a-b, 459a-b) so as to clamp the two plies (456a-b, 459a-b) against the fixing rib. - a wing comprising an airfoil box partly produced using a front spar; - a mounting pylon arranged under the wing and comprising a primary structure in the form of a primary box having a top spar extending at least partly under the airfoil box and having a slit, a bottom spar, lateral panels and a transverse reinforcing rib, called fixing rib, of which a bottom part is housed and fixed inside the primary structure and of which a top part passes through the slit; - fixing means which ensure the fixing of the top part to the front spar and where the fixing means comprise a plurality of fixing bolts, where each fixing bolt fixes the top part to the front spar and has its axis at right angles to the fixing rib;
A loudness-compensating volume control method for applying a volume setting (s v) to an audio signal, which volume setting (s v) causes a desired scaling of the original specific loudness (N[b,m]) of the audio signal to a target specific loudness (Ñ[b,m]), by processing the audio signal in both the digital and analog domains, comprising the steps of: calculating, as a function of the volume setting ( s v), a loudness scaling wideband gain component, calculating, as a function of the target specific loudness (Ñ[b,m]) and the audio signal, loudness scaling frequency- and time-varying gain components (g[b,m]), applying in the digital domain modifications to the audio signal based on said frequency- and time-varying gain components to produce a partly-modified audio signal, and applying in the analog domain modifications to the partly-modified audio signal based on said wideband gain components. calculating, as a function of the volume setting ( s v), a loudness scaling wideband gain component, calculating, as a function of the target specific loudness (Ñ[b,m]) and the audio signal, loudness scaling frequency- and time-varying gain components (g[b,m]), applying in the digital domain modifications to the audio signal based on said frequency- and time-varying gain components to produce a partly-modified audio signal, and applying in the analog domain modifications to the partly-modified audio signal based on said wideband gain components.
A paper machine for manufacturing paper, wherein the paper machine has a machine-wide fiber-suspension-inlet, a vat with a uniflow cylinder mold rotating therein, a vat inlet, and a fiber web pickup device, wherein a vat channel is formed between the uniflow cylinder mold and the vat, and wherein the vat inlet has a flow guiding device, and the flow guiding device has a cover that covers the suspension level of the fiber suspension in the vat inlet and continuously accelerates the suspension stream while guiding it into the vat channel inlet, characterized in that the cover, viewed in the flow direction, has a rigid top lip that is curved downwardly at the end, and an adjoining flexible skirt that may be situated so as to rest against the cylinder mold.
A driving control method executed by a processor configured to control driving of a vehicle, comprising: acquiring detection information around the vehicle on a basis of a detection condition that can be set for each point along a predetermined route of the vehicle; extracting events (PA, PB, PC) which the vehicle encounters, on a basis of the detection information; arranging the extracted events (PA, PB, PC) in order of encounters with the vehicle; creating a sequential driving plan in which a driving action is defined for each of the events (PA, PB, PC) on the basis of the acquired detection information on the events (PA, PB, PC); and executing a driving control instruction for the vehicle in accordance with the driving plan; characterized by determining, on a basis of content of the driving action defined for a first event which the vehicle encounters earlier, a second detection condition regarding at least one second event (PB, PC) which the vehicle encounters after the first event. acquiring detection information around the vehicle on a basis of a detection condition that can be set for each point along a predetermined route of the vehicle; extracting events (PA, PB, PC) which the vehicle encounters, on a basis of the detection information; arranging the extracted events (PA, PB, PC) in order of encounters with the vehicle; creating a sequential driving plan in which a driving action is defined for each of the events (PA, PB, PC) on the basis of the acquired detection information on the events (PA, PB, PC); and executing a driving control instruction for the vehicle in accordance with the driving plan; characterized by determining, on a basis of content of the driving action defined for a first event which the vehicle encounters earlier, a second detection condition regarding at least one second event (PB, PC) which the vehicle encounters after the first event.
A method of fractionally distilling acrylic acid comprising: producing acrylic acid using a dividing wall distillation column comprising a condenser, a reboiler and a main column having a dividing wall, wherein the main column is divided into a column-top zone, an upper feed zone, an upper outflow zone, a lower feed zone, a lower outflow zone and a column-bottom zone, a crude acrylic acid raw material flows in a middle inflow plate in which the upper feed zone and the lower feed zone come in contact with each other, a low boiling point component flows out from the column-top zone, a high boiling point component flows out from the column-bottom zone, and a middle boiling point component flows out through a middle outflow plate in which the upper outflow zone and the lower outflow zone come in contact with each other, and the middle boiling point component is acrylic acid, wherein at a pressure of 4.666 kPa, a temperature of the column-top zone is in a range of 55 to 65 °C and a temperature of the column-bottom zone is in a range of 90 to 100 °C, or wherein at a pressure of 3.333 kPa, a temperature of the column-top zone is in a range of 50 to 60 °C and a temperature of the column-bottom zone is in a range of 85 to 95 °C, or wherein at a pressure of 6.666 kPa, a temperature of the column-top zone is in a range of 60 to 70 °C and a temperature of the column-bottom zone is in a range of 93 to 103 °C. producing acrylic acid using a dividing wall distillation column comprising a condenser, a reboiler and a main column having a dividing wall, wherein the main column is divided into a column-top zone, an upper feed zone, an upper outflow zone, a lower feed zone, a lower outflow zone and a column-bottom zone, a crude acrylic acid raw material flows in a middle inflow plate in which the upper feed zone and the lower feed zone come in contact with each other, a low boiling point component flows out from the column-top zone, a high boiling point component flows out from the column-bottom zone, and a middle boiling point component flows out through a middle outflow plate in which the upper outflow zone and the lower outflow zone come in contact with each other, and the middle boiling point component is acrylic acid, wherein at a pressure of 4.666 kPa, a temperature of the column-top zone is in a range of 55 to 65 °C and a temperature of the column-bottom zone is in a range of 90 to 100 °C, or wherein at a pressure of 3.333 kPa, a temperature of the column-top zone is in a range of 50 to 60 °C and a temperature of the column-bottom zone is in a range of 85 to 95 °C, or wherein at a pressure of 6.666 kPa, a temperature of the column-top zone is in a range of 60 to 70 °C and a temperature of the column-bottom zone is in a range of 93 to 103 °C.
A method for detecting and removing a clogging condition of a filter in a dishwasher, the method comprising: determining at least one of an expected water level for a wash cycle of the dishwasher or an expected rate at which the water level changes during the wash cycle; monitoring at least one of a water level during execution of the wash cycle or a rate at which the water level changes during execution of the wash cycle; detecting the clogging condition of the filter, wherein the clogging condition is indicated by at least one of a deviation of the monitored water level from the expected water level or a deviation of the monitored rate of water level change from the expected rate of water level change; Characterized by determining a current position, corresponding to current operations of components of the dishwasher, of the wash cycle being executed; executing a remedial operation to facilitate removal of the clogging condition from the filter; determining if the clogging condition has been removed following execution of the remedial operation; and resuming operation of the dishwasher based at least on the current position if the clogging condition has been removed. determining at least one of an expected water level for a wash cycle of the dishwasher or an expected rate at which the water level changes during the wash cycle; monitoring at least one of a water level during execution of the wash cycle or a rate at which the water level changes during execution of the wash cycle; detecting the clogging condition of the filter, wherein the clogging condition is indicated by at least one of a deviation of the monitored water level from the expected water level or a deviation of the monitored rate of water level change from the expected rate of water level change; Characterized by determining a current position, corresponding to current operations of components of the dishwasher, of the wash cycle being executed; executing a remedial operation to facilitate removal of the clogging condition from the filter; determining if the clogging condition has been removed following execution of the remedial operation; and resuming operation of the dishwasher based at least on the current position if the clogging condition has been removed.
Method for producing solid carbon and hydrogen gas by molten metal pyrolysis of hydrocarbons, the method comprising: (i) feeding a stream of hydrocarbon into a pyrolysis reactor through a catalytic layer of molten metal to pyrolise the hydrocarbon into solid carbon and hydrogen gas; (ii) feeding a stream of molten salt into the pyrolysis reactor to separate the solid carbon from the molten metal. (iii) collecting a product gas containing hydrogen gas that evolves from the reactor; (iv) collecting a mixture comprising solid carbon and molten salt; (v) separating the mixture obtained in step (iv) into a product comprising solid carbon and separated salt. (i) feeding a stream of hydrocarbon into a pyrolysis reactor through a catalytic layer of molten metal to pyrolise the hydrocarbon into solid carbon and hydrogen gas; (ii) feeding a stream of molten salt into the pyrolysis reactor to separate the solid carbon from the molten metal. (iii) collecting a product gas containing hydrogen gas that evolves from the reactor; (iv) collecting a mixture comprising solid carbon and molten salt; (v) separating the mixture obtained in step (iv) into a product comprising solid carbon and separated salt.
A method of manufacturing a sole element for an article of footwear, the method comprising the steps of: forming a sole element preform by injection molding; inserting the injection molded sole element preform into a press mold cavity of a press mold; and press-forming the sole element preform within the press mold cavity to form a unitary finished sole element comprising: a first perimeter region comprising a first maximum density; a second perimeter region comprising a second maximum density; a third perimeter region comprising a third maximum density; and a central region comprising a fourth maximum density extending between at least a portion of the first perimeter region, second perimeter region, and third perimeter region, wherein: the first maximum density is less than the second maximum density; the third maximum density is less than the first maximum density and the second maximum density; and the fourth maximum density is less than at least one of the first maximum density and the second maximum density, and wherein each of the first perimeter region, second perimeter region, third perimeter region, and central region is formed as a unitary construction, and wherein there are smoothly transitioning density profiles between each of the first perimeter region, second perimeter region, and third perimeter region. forming a sole element preform by injection molding; inserting the injection molded sole element preform into a press mold cavity of a press mold; and press-forming the sole element preform within the press mold cavity to form a unitary finished sole element comprising: a first perimeter region comprising a first maximum density; a second perimeter region comprising a second maximum density; a third perimeter region comprising a third maximum density; and a central region comprising a fourth maximum density extending between at least a portion of the first perimeter region, second perimeter region, and third perimeter region, wherein: a first perimeter region comprising a first maximum density; a second perimeter region comprising a second maximum density; a third perimeter region comprising a third maximum density; and a central region comprising a fourth maximum density extending between at least a portion of the first perimeter region, second perimeter region, and third perimeter region, wherein: the first maximum density is less than the second maximum density; the third maximum density is less than the first maximum density and the second maximum density; and the fourth maximum density is less than at least one of the first maximum density and the second maximum density, and wherein each of the first perimeter region, second perimeter region, third perimeter region, and central region is formed as a unitary construction, and wherein there are smoothly transitioning density profiles between each of the first perimeter region, second perimeter region, and third perimeter region.
An electrostatic discharge protection device structure, comprising a semiconductor region of a first type, an insulating base formed under the semiconductor region and sidewalls (215, 216) isolating the semiconductor region; a first, first type well formed within the semiconductor region and including a first, first type doped region for providing a first contact pad of the device; a first, second type well formed within the semiconductor region and separating within the semiconductor region a first part of the semiconductor region containing the first, first type well from a further part of the semiconductor region, wherein the first, first type well, the first, second type well and the first part of the semiconductor region constitute a first transistor of a first conductivity type; a second, first type well formed within the further part of the semiconductor region and including a first, second type doped region and a second, first type doped region, wherein the first, second type well, the semiconductor region and the first, second type doped region constitute a second transistor of a second conductivity type; a second, second type well formed within the further part of the semiconductor region and separating within the further part of the semiconductor region a second part of the semiconductor region containing the second, first type well from a third part of the semiconductor region, wherein the first, second type well, the second part of the semiconductor region and the second, second type well constitute a third transistor of a second conductivity type; and a third, first type well formed within the third part of the semiconductor region and including a second, second type doped region and a third, first type doped region, wherein the second part of the semiconductor region, the second, second type well and the third part of the semiconductor region constitute a fourth transistor of a first conductivity type, wherein the second, second type well, the third part of the semiconductor region and the second, second type doped region constitute a fifth transistor of a second conductivity type, wherein the first, second and third parts of the semiconductor region, which lie under the first, second and third, first type wells (202, 205, 210), are isolated from each other by the first and second, second type wells (204, 209), which contact the insulating base, wherein the first transistor of the first conductivity type and the second transistor of the second conductivity type are operably coupled together and form a first silicon controlled rectifier, SCR, wherein the second transistor and the third transistor of the second conductivity type are operably coupled together and form a Darlington pair, and wherein the fourth transistor of the first conductivity type and the fifth transistor of the second conductivity type are operably coupled together and form a second SCR, which is operably coupled in series with the first SCR.