mhurhangee/ep-ind-claims huggingface dataset:
A rotor for an induction electric motor comprising: a rotor core rotatably provided around a rotation axis; a plurality of rotor slots formed on an outer peripheral surface side of the rotor core, penetrating the rotor core in a rotation axis direction, and arranged in a rotation direction; and a plurality of conductor bars inserted into the rotor slots, respectively, wherein each of the rotor slots comprises: an inner slot in which the conductor bar is arranged; and an outer slot formed on an outside in a radial direction of the inner slot and communicating with the inner slot, the outer slot has such a shape that a width in the rotation direction gradually decreases toward the outside in the radial direction, a projection which projects from an inner surface toward an inside in the radial direction is provided on an outermost side in the radial direction of the outer slot, characterized in that a length of the projection in the radial direction is set to be such a length that a distal end on the inside in the radial direction does not contact the conductor bar. a rotor core rotatably provided around a rotation axis; a plurality of rotor slots formed on an outer peripheral surface side of the rotor core, penetrating the rotor core in a rotation axis direction, and arranged in a rotation direction; and a plurality of conductor bars inserted into the rotor slots, respectively, wherein each of the rotor slots comprises: an inner slot in which the conductor bar is arranged; and an outer slot formed on an outside in a radial direction of the inner slot and communicating with the inner slot, the outer slot has such a shape that a width in the rotation direction gradually decreases toward the outside in the radial direction, a projection which projects from an inner surface toward an inside in the radial direction is provided on an outermost side in the radial direction of the outer slot, characterized in that a length of the projection in the radial direction is set to be such a length that a distal end on the inside in the radial direction does not contact the conductor bar. an inner slot in which the conductor bar is arranged; and an outer slot formed on an outside in a radial direction of the inner slot and communicating with the inner slot, the outer slot has such a shape that a width in the rotation direction gradually decreases toward the outside in the radial direction, a projection which projects from an inner surface toward an inside in the radial direction is provided on an outermost side in the radial direction of the outer slot, characterized in that a length of the projection in the radial direction is set to be such a length that a distal end on the inside in the radial direction does not contact the conductor bar.
A ball valve apparatus suitable for use in a subsea intervention system, comprising: a housing defining a housing inlet and a housing outlet; a valve cartridge mounted within the housing and defining a cartridge flow path extending between a cartridge inlet and a cartridge outlet, wherein the cartridge inlet is arranged in fluid communication with the housing inlet and the cartridge outlet is arranged in fluid communication with the housing outlet, the valve cartridge comprising: a cartridge housing defining a pressure housing and operable to retain pressure inside the valve cartridge; a ball valve member (96a, 96b) mounted within the cartridge housing and being rotatable to selectively open and close the cartridge flow path; and a valve actuator arrangement mounted within the cartridge housing for actuating the ball valve member (96a, 96b) between open and closed positions; and a leak chamber defined between the housing and the cartridge housing for containing fluid leakage from the valve cartridge. a housing defining a housing inlet and a housing outlet; a valve cartridge mounted within the housing and defining a cartridge flow path extending between a cartridge inlet and a cartridge outlet, wherein the cartridge inlet is arranged in fluid communication with the housing inlet and the cartridge outlet is arranged in fluid communication with the housing outlet, the valve cartridge comprising: a cartridge housing defining a pressure housing and operable to retain pressure inside the valve cartridge; a ball valve member (96a, 96b) mounted within the cartridge housing and being rotatable to selectively open and close the cartridge flow path; and a valve actuator arrangement mounted within the cartridge housing for actuating the ball valve member (96a, 96b) between open and closed positions; and a cartridge housing defining a pressure housing and operable to retain pressure inside the valve cartridge; a ball valve member (96a, 96b) mounted within the cartridge housing and being rotatable to selectively open and close the cartridge flow path; and a valve actuator arrangement mounted within the cartridge housing for actuating the ball valve member (96a, 96b) between open and closed positions; and a leak chamber defined between the housing and the cartridge housing for containing fluid leakage from the valve cartridge.
Piezoelectric actuator having an actuator element and two electrical connection elements (23, 24), wherein the actuator element has, in particular, a stack comprising a plurality of piezoelectric layers between which electrode layers are arranged, the said electrode layers each being electrically connected to one of the connection elements (23, 24), characterized in that a) two clamping jaws (37, 38) are provided, the actuator element and the connection elements (23, 24) being clamped between the said clamping jaws in order to press the electrical connection elements (23, 24) against the actuator element, b) a spring (35, 36) is provided in order to press one of the clamping jaws (37, 38) against the actuator element, c) a further spring (35, 36) is provided in order to press the other of the clamping jaws (37, 38) against the actuator element and to centre the actuator element. a) two clamping jaws (37, 38) are provided, the actuator element and the connection elements (23, 24) being clamped between the said clamping jaws in order to press the electrical connection elements (23, 24) against the actuator element, b) a spring (35, 36) is provided in order to press one of the clamping jaws (37, 38) against the actuator element, c) a further spring (35, 36) is provided in order to press the other of the clamping jaws (37, 38) against the actuator element and to centre the actuator element.
A method of obtaining sequence information from genomic DNA, said method comprising: (a) providing a population of first fragments of the genomic DNA, (b) preparing emulsion droplets of said first fragments, such that each emulsion droplet comprises a subset of said population of first fragments, (c) producing a population of second fragments from said first fragment within each emulsion droplet, such that said second fragments are shorter than said first fragments, (d) combining each of said emulsion droplets comprising said second fragments with an adaptor tag droplet that comprises adaptor tags, thereby forming a combined droplet, wherein different combined droplets contain different adaptor tags, (e) ligating said second fragments with said adaptor tags in each combined droplet to form tagged fragments, (f) combining tagged fragments from a plurality of said combined droplets into a single mixture, (g) obtaining sequence reads that contain sequence information of the genomic DNA from tagged fragments in said single mixture, wherein said sequence reads include sequence information from said fragments and sequence information from said adaptor tags, thereby identifying fragments that originated from the same emulsion droplet. (a) providing a population of first fragments of the genomic DNA, (b) preparing emulsion droplets of said first fragments, such that each emulsion droplet comprises a subset of said population of first fragments, (c) producing a population of second fragments from said first fragment within each emulsion droplet, such that said second fragments are shorter than said first fragments, (d) combining each of said emulsion droplets comprising said second fragments with an adaptor tag droplet that comprises adaptor tags, thereby forming a combined droplet, wherein different combined droplets contain different adaptor tags, (e) ligating said second fragments with said adaptor tags in each combined droplet to form tagged fragments, (f) combining tagged fragments from a plurality of said combined droplets into a single mixture, (g) obtaining sequence reads that contain sequence information of the genomic DNA from tagged fragments in said single mixture, wherein said sequence reads include sequence information from said fragments and sequence information from said adaptor tags, thereby identifying fragments that originated from the same emulsion droplet.
Method for producing a tool, in particular a mechanical key for a motor vehicle, comprising at least the following steps: a) producing a plastic handle element, comprising at least one recess, b) producing a shaft from a metallic material, in particular comprising an at least partially profiled outer contour, c) inserting at least one shaft section into the recess of the handle element, d) joining the handle element to the shaft section in a material-locking manner; wherein the method is characterized in that in a method step a.2) the handle element is coated, in particular galvanized. a) producing a plastic handle element, comprising at least one recess, b) producing a shaft from a metallic material, in particular comprising an at least partially profiled outer contour, c) inserting at least one shaft section into the recess of the handle element, d) joining the handle element to the shaft section in a material-locking manner;
Apparatus for continuously conveying and pre-heating a metal charge inside a container of a melting plant, comprising at least a conveyor channel, and at least a hood defining a conveyor tunnel and/or an expansion chamber, said hood being disposed above said conveyor channel for the transit of at least part of the fumes exiting from said container, and said conveyor channel cooperating with apertures to discharge said fumes, wherein said conveyor channel comprises a bottom wall and two lateral walls (23, 24) which defines a substantially U-shaped cross section, wherein suction channels (25, 26) are provided along the length of the conveyor channel, at the side of said lateral walls (23, 24), and wherein said conveyor channel comprises conveyor walls (38, 39) that define, together said lateral walls (23, 24), a fume diverter channel through which the fumes are obliged to pass before being introduced into said suction channels (25, 26), said apertures being defined in and/or by said conveyor walls (38, 39), said fume diverter channel defining at least a first expansion compartment, connected both to said apertures and also to said suction channels (25, 26), characterized in that said suction channels (25, 26) define at least a second expansion compartment suitable to expand said fumes further.
A complementary metal oxide semiconductor sensor system (100; 250; 340), comprising: a doped substrate (102; 252; 342); a doped central island (108; 264; 350; 380) extending downwardly within the doped substrate (102; 252; 342) from an upper surface (112; 266; 354) of the doped substrate (102; 252; 342); a first doped outer island (106; 256; 260; 348; 378) extending downwardly within the doped substrate (102; 252; 342) from the upper surface (112; 266; 354) of the doped substrate (102; 252; 342), the first outer island (106; 256; 260; 348; 378) electrically isolated from the central island (108; 264; 350; 380) within an upper portion of the substrate (102; 252; 342) by a first doped well (104; 276; 376) which terminates above a mid portion of the substrate (102; 252; 342), and electrically coupled to the central island (108; 264; 350; 380) within a base portion of the substrate (102; 252; 342); characterized in that a leg of the first doped well (104; 276; 376) separates the first outer island (106; 256; 260; 348; 378) from the central island (108; 264; 350; 380) within an upper portion of the substrate (102; 252; 342); and a first buried doped well (124; 286) is buried within a mid portion of the substrate (102; 252; 342) below the first doped well (104; 276; 376), wherein a leg of the first buried doped well (124; 286) electrically isolates each of the first outer island (106; 256; 260; 348; 378) and the central island (108; 264; 350; 380) from the other of the first outer island (106; 256; 260; 348; 378) and the central island (108; 264; 350; 380) within the mid portion of the substrate (102; 252; 342). a doped substrate (102; 252; 342); a doped central island (108; 264; 350; 380) extending downwardly within the doped substrate (102; 252; 342) from an upper surface (112; 266; 354) of the doped substrate (102; 252; 342); a first doped outer island (106; 256; 260; 348; 378) extending downwardly within the doped substrate (102; 252; 342) from the upper surface (112; 266; 354) of the doped substrate (102; 252; 342), the first outer island (106; 256; 260; 348; 378) electrically isolated from the central island (108; 264; 350; 380) within an upper portion of the substrate (102; 252; 342) by a first doped well (104; 276; 376) which terminates above a mid portion of the substrate (102; 252; 342), and electrically coupled to the central island (108; 264; 350; 380) within a base portion of the substrate (102; 252; 342); characterized in that a leg of the first doped well (104; 276; 376) separates the first outer island (106; 256; 260; 348; 378) from the central island (108; 264; 350; 380) within an upper portion of the substrate (102; 252; 342); and a first buried doped well (124; 286) is buried within a mid portion of the substrate (102; 252; 342) below the first doped well (104; 276; 376), wherein a leg of the first buried doped well (124; 286) electrically isolates each of the first outer island (106; 256; 260; 348; 378) and the central island (108; 264; 350; 380) from the other of the first outer island (106; 256; 260; 348; 378) and the central island (108; 264; 350; 380) within the mid portion of the substrate (102; 252; 342).
A method for forming an optically-responsive multilayer reflective article, which method comprises (a) providing an article which includes in the following order a substrate, a continuous reflective layer, and an optically-responsive porous detection layer comprising a polymer of intrinsic microporosity; or providing an article which includes in the following order a transparent substrate, a continuous semireflective layer, and an optically-responsive detection layer comprising a polymer of intrinsic microporosity; (b) applying a dilute solution or suspension of metallic nanoparticles to the optically-responsive porous detection layer and allowing the solution or suspension to dry to form a semicontinuous liquid- or vapor-permeable light-reflective layer that will permit a liquid or vapor analyte to pass through the light-reflective layer to cause an optically-responsive change in the detection layer in the presence of the analyte; wherein the optically-responsive multilayer reflective article includes in the following order the substrate, the continuous reflective layer, the optically-responsive detection layer and the semicontinuous liquid- or vapor-permeable light-reflective porous layer as a semicontinuous semireflective layer; or wherein the optically-responsive multilayer reflective article includes in the following order the transparent substrate, the continuous semireflective layer, the optically-responsive detection layer and the semicontinuous liquid- or vapor-permeable reflective layer. (a) providing an article which includes in the following order a substrate, a continuous reflective layer, and an optically-responsive porous detection layer comprising a polymer of intrinsic microporosity; or providing an article which includes in the following order a transparent substrate, a continuous semireflective layer, and an optically-responsive detection layer comprising a polymer of intrinsic microporosity; (b) applying a dilute solution or suspension of metallic nanoparticles to the optically-responsive porous detection layer and allowing the solution or suspension to dry to form a semicontinuous liquid- or vapor-permeable light-reflective layer that will permit a liquid or vapor analyte to pass through the light-reflective layer to cause an optically-responsive change in the detection layer in the presence of the analyte;
An intra-vaginal drug delivery system comprising (i) a core comprising a first thermoplastic polymer and a first therapeutic agent, wherein the first therapeutic agent is dissolved in the first thermoplastic polymer, and (ii) a skin surrounding the core comprising a second thermoplastic polymer, wherein the first therapeutic agent is less permeable in the second thermoplastic polymer than the first thermoplastic polymer, and a second therapeutic agent in solid form; wherein the skin has an inner portion adjacent to the core and an outer portion adjacent to the inner portion, wherein the second therapeutic agent is loaded in the inner portion and the inner and outer portions of the skin are made from the same polymer; or wherein the skin comprises three portions, an inner portion adjacent to the core, an intermediate portion adjacent to the inner portion, and an outer portion adjacent to the intermediate portion, wherein the intermediate portion is loaded with the second therapeutic agent and the inner, the intermediate and outer portions of the skin are made from the same polymer.
A method for anonymizing an acquired image of an industrial plant, comprising the steps: - acquiring an image by means of an image acquisition unit, wherein the image comprises an industrial plant, an optoelectronically readable code and a personal feature; - identifying the personal feature in the image; - obscuring the personal feature in the image; - then cropping the image to a part region comprising the optoelectronically readable code such that further information not necessary for the reading out of the optoelectronically readable code is removed; and - reading out the optoelectronically readable code. - acquiring an image by means of an image acquisition unit, wherein the image comprises an industrial plant, an optoelectronically readable code and a personal feature; - identifying the personal feature in the image; - obscuring the personal feature in the image; - then cropping the image to a part region comprising the optoelectronically readable code such that further information not necessary for the reading out of the optoelectronically readable code is removed; and - reading out the optoelectronically readable code.
An input coupler for an accelerating cavity, comprising: a cylindrical external conductor; a cylindrical internal conductor arranged coaxially with the external conductor, wherein a heating medium circulates in operation inside the cylindrical internal conductor, for removing heat generated in the internal conductor during operation, and for reducing temperature rise in the internal conductor; a plate provided between an inner surface of the external conductor and an outer surface of the internal conductor; a cooling part for cooling the plate from the external conductor side to the freezing point of water or lower; and a heat insulating part provided on a part at which the internal conductor and the plate are connected; wherein the plate is connected to the internal conductor via the heat insulating part 8); characterised in that the thermal conductivity of the heat insulating part is lower than that of the internal conductor, and the heat insulating part is configured to reduce the heat transfer between the plate and the internal conductor so as to thermally insulate the plate and the internal conductor. a cylindrical external conductor; a cylindrical internal conductor arranged coaxially with the external conductor, wherein a heating medium circulates in operation inside the cylindrical internal conductor, for removing heat generated in the internal conductor during operation, and for reducing temperature rise in the internal conductor; a plate provided between an inner surface of the external conductor and an outer surface of the internal conductor; a cooling part for cooling the plate from the external conductor side to the freezing point of water or lower; and a heat insulating part provided on a part at which the internal conductor and the plate are connected; wherein the plate is connected to the internal conductor via the heat insulating part 8);
A periscope apparatus for an armored vehicle comprising a top module, a middle module and a bottom module, wherein the top module is arranged to be releasably connected with the middle module, and comprises a top housing configured to selectively receive at least two elements selected from a plurality of different mirrors, lenses and camera devices (212, 213), to receive light beams entering through an opening of the top module; the middle module is arranged to be releasably connected with the top module and the bottom module, and comprises a middle housing; the bottom module is arranged to be releasably connected with the middle module, and comprises a bottom housing configured to receive a control unit for the periscope apparatus, characterized in that the middle housing is configured to selectively receive at least one camera device (222, 223) of a plurality of different size camera devices, wherein the at least one camera device is configured to be attached to the middle housing using an universal adaptation device (224a, 224b). the middle module is arranged to be releasably connected with the top module and the bottom module, and comprises a middle housing; the bottom module is arranged to be releasably connected with the middle module, and comprises a bottom housing configured to receive a control unit for the periscope apparatus, characterized in that the middle housing is configured to selectively receive at least one camera device (222, 223) of a plurality of different size camera devices, wherein the at least one camera device is configured to be attached to the middle housing using an universal adaptation device (224a, 224b).
An aqueous pharmaceutical composition for parenteral administration being stable upon autoclaving and comprising Tapentadol or a physiologically acceptable salt thereof; wherein - the concentration of Tapentadol is greater than 8.00 mg/mL, based on the weight of Tapentadol free base and based on the total volume of the composition; - the composition comprises a buffer system; - the buffer system comprises at least one conjugate base and at least one conjugate acid, wherein said at least one conjugate base and said at least one conjugate acid are selected from the group consisting of citrate, hydrogencitrate, dihydrogencitrate and citric acid; - the total concentration of said at least one conjugate base and said at least one conjugate acid is at least 1.0 mmol/L, based on the total content of the at least one conjugate base and the at least one conjugate acid and based on the total volume of the composition; and - the pH value of the composition is within the range of from 4.5 to not greater than 5.4. - the concentration of Tapentadol is greater than 8.00 mg/mL, based on the weight of Tapentadol free base and based on the total volume of the composition; - the composition comprises a buffer system; - the buffer system comprises at least one conjugate base and at least one conjugate acid, wherein said at least one conjugate base and said at least one conjugate acid are selected from the group consisting of citrate, hydrogencitrate, dihydrogencitrate and citric acid; - the total concentration of said at least one conjugate base and said at least one conjugate acid is at least 1.0 mmol/L, based on the total content of the at least one conjugate base and the at least one conjugate acid and based on the total volume of the composition; and - the pH value of the composition is within the range of from 4.5 to not greater than 5.4.