mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device comprising: a first conductivity type drift region formed in a semiconductor substrate; a second conductivity type body region formed at an upper surface of the semiconductor substrate on an upper surface side of the drift region; a first conductivity type first semiconductor region formed on a part of an upper surface of the body region; and a trench gate type insulated gate having a longitudinal direction penetrating the first semiconductor region and the body region, and formed to a depth at which the bottom of the insulated gate contacts the drift region, characterized in that a part of the insulated gate on a drift region side relative to the body region becomes gradually deeper from both end portions (204, 214, 224, 234, 244) to a center portion (205, 215, 225, 235, 245) in the longitudinal direction of the insulated gate, and the bottom portion of the insulated gate part has an arc-like pattern and/or a stepped pattern. a first conductivity type drift region formed in a semiconductor substrate; a second conductivity type body region formed at an upper surface of the semiconductor substrate on an upper surface side of the drift region; a first conductivity type first semiconductor region formed on a part of an upper surface of the body region; and a trench gate type insulated gate having a longitudinal direction penetrating the first semiconductor region and the body region, and formed to a depth at which the bottom of the insulated gate contacts the drift region, characterized in that a part of the insulated gate on a drift region side relative to the body region becomes gradually deeper from both end portions (204, 214, 224, 234, 244) to a center portion (205, 215, 225, 235, 245) in the longitudinal direction of the insulated gate, and the bottom portion of the insulated gate part has an arc-like pattern and/or a stepped pattern.
A method for integrating tags (112, 118, 200, 400) with items (118, 116, 1012), comprising: - dynamically determining, by a computing device during a fabrication of an item (118, 116, 1012), a length of each metal thread to be incorporated into the item (118, 116, 1012) to optimize tag performance in view of dielectric and tuning properties of the item (118, 116, 1012); - creating, during the fabrication of the item (118, 116, 1012), at least one metal thread having the length that was dynamically determined; - sewing, during the fabrication of the item (118, 116, 1012), the at least one metal thread into the item (118, 116, 1012) being produced to form at least one antenna (214, 700) for a tag (112, 118, 200, 400); and - attaching at least a communications enabled device (204, 702) to the item (118, 116, 1012) after sewing the at least one metal thread into the item (118, 116, 1012) so as to form an electrical coupling or connection between the communications enabled device (204, 702) and the at least one antenna (214, 700). - dynamically determining, by a computing device during a fabrication of an item (118, 116, 1012), a length of each metal thread to be incorporated into the item (118, 116, 1012) to optimize tag performance in view of dielectric and tuning properties of the item (118, 116, 1012); - creating, during the fabrication of the item (118, 116, 1012), at least one metal thread having the length that was dynamically determined; - sewing, during the fabrication of the item (118, 116, 1012), the at least one metal thread into the item (118, 116, 1012) being produced to form at least one antenna (214, 700) for a tag (112, 118, 200, 400); and - attaching at least a communications enabled device (204, 702) to the item (118, 116, 1012) after sewing the at least one metal thread into the item (118, 116, 1012) so as to form an electrical coupling or connection between the communications enabled device (204, 702) and the at least one antenna (214, 700).
A method of producing sex sorted bovine sperm suitable for insemination having an improved dose response comprising: a) extending a bovine sperm sample with a buffering holding media at a sperm sample to buffering holding media ratio between about 1:1 and 1: 10; b) adjusting the concentration of the extended sperm sample to a target concentration range and adjusting the pH of the sperm sample towards a predetermined pH by centrifuging the extended sperm sample and removing supernatant to a concentration between about 2400 million sperm per ml and about 500 million sperm per ml, the predetermined pH being a target pH range from 6.8 to 7.4; c) diluting the reconcentrated sperm with a staining media to a concentration between 80 million sperm per ml and 320 million sperm per ml; d) staining the reconcentrated sperm sample with a DNA selective dye; e) maintaining the pH of the sperm sample through steps a) to d) at the target pH range; f) sex sorting the stained sperm sample with a flow cytometer into a catch fluid; and g) supplementing each of the buffering holding media, the DNA selective dye and the catch fluid with at least one antioxidant at a concentration between 0.01 mg per ml and 0.5 mg per ml; h) producing an insemination dosage having between 3 million and 4 million sperm and having at least 90% of the fertility of a conventional dose of 15 million sperm. a) extending a bovine sperm sample with a buffering holding media at a sperm sample to buffering holding media ratio between about 1:1 and 1: 10; b) adjusting the concentration of the extended sperm sample to a target concentration range and adjusting the pH of the sperm sample towards a predetermined pH by centrifuging the extended sperm sample and removing supernatant to a concentration between about 2400 million sperm per ml and about 500 million sperm per ml, the predetermined pH being a target pH range from 6.8 to 7.4; c) diluting the reconcentrated sperm with a staining media to a concentration between 80 million sperm per ml and 320 million sperm per ml; d) staining the reconcentrated sperm sample with a DNA selective dye; e) maintaining the pH of the sperm sample through steps a) to d) at the target pH range; f) sex sorting the stained sperm sample with a flow cytometer into a catch fluid; and g) supplementing each of the buffering holding media, the DNA selective dye and the catch fluid with at least one antioxidant at a concentration between 0.01 mg per ml and 0.5 mg per ml; h) producing an insemination dosage having between 3 million and 4 million sperm and having at least 90% of the fertility of a conventional dose of 15 million sperm.
A method for producing an insulated wall, in particular a wall having internal insulation, in which at least one insulation board is fastened to an on-site substrate by means of an adhesive compound to form an insulation layer, said method comprising the steps: - applying the adhesive compound over the full area of the on-site substrate and/or of the rear face of the insulation board, - placing the insulation board against the substrate so that a connection is produced between the insulation board and the substrate via the adhesive compound, - vibrating the insulation board into the adhesive compound with the aid of a vibration device, during which the insulation board is oriented and/or levelled. - applying the adhesive compound over the full area of the on-site substrate and/or of the rear face of the insulation board, - placing the insulation board against the substrate so that a connection is produced between the insulation board and the substrate via the adhesive compound, - vibrating the insulation board into the adhesive compound with the aid of a vibration device, during which the insulation board is oriented and/or levelled.
A method for operating wind energy converters, in particular of a wind farm, in a power limitation mode, wherein the power limitation mode comprises the following steps: - turning off at least one of the wind energy converters and operating at least one wind energy converter different to the turned-off wind energy converter, - activating a generator heating of the turned-off wind energy converter, - turning off the working wind energy converter at or after occurrence of a predefined event, and - activating the generator heating of the wind energy converter turned off at or after the occurrence of the predefined event. - turning off at least one of the wind energy converters and operating at least one wind energy converter different to the turned-off wind energy converter, - activating a generator heating of the turned-off wind energy converter, - turning off the working wind energy converter at or after occurrence of a predefined event, and - activating the generator heating of the wind energy converter turned off at or after the occurrence of the predefined event.
Operating apparatus for a housing appliance with a carrier plate, on which at least one operating element for setting operating conditions of the household appliance is arranged in a rotatable manner, wherein the operating element has an insert part (12, 12a, 12b) with at least one display region that is permeable to light, and with at least one lamp arranged in a stationary manner for illuminating the display region that is permeable to light, wherein the operating element is embodied as a rotary knob, which has a base body that is combined with the insert part (12, 12a, 12b), wherein the insert part (12, 12a, 12b) is predetermined as a function of a type of the household appliance, wherein the base body has a gripping area on the peripheral side, wherein the base body is held on the carrier plate by means of a connecting part and wherein the lamp is arranged next to the connecting part, characterised in that the at least one display region that is permeable to light has a plurality of microholes (18, 18a, 18b), that the base body has a plurality of recesses (36, 36a, 36b) that extend from its lower side to its upper side, through which light from the lamp can be conducted to the display region that is permeable to light, wherein the recesses (36, 36a, 36b) of the base body can be illuminated by the lamp as a function of a setting or position of the operating element and wherein recesses (36, 36a, 36b) that are arranged adjacently to one another are in each case separated by a web.
A non-pneumatic tire and wheel assembly comprising an outer annular ring having tread portion for ground contact and a shear band, and one or more spoke disks, wherein each spoke disk has an outer ring mounted to the shear band and an inner ring mounted to a wheel, wherein each spoke disk has at least two spokes (410, 420, 440, 450), and wherein each of said spoke disks has one or more anchors for mounting in aligned mating slots of the wheel, characterized in that said one or more anchors further include a pin received in a recess.
An aerosol-forming composition for fire extinguishing, comprising an alkali metal nitrate as an oxidant, a novolac-type phenol formaldehyde resin and an epoxy resin as a fuel/binder, an additional fuel, and a combustion modifier, characterized in that it comprises, as a additional fuel, a mixture of sodium carbonate and an alkali metal carboxylate which also acts as a coolant, a gas-forming buffer component and a steam-regulating component, and comprising, as a combustion modifier, a mixture of magnesium hexacyanoferrate (Mg 2 [Fe 6]) and cobalt nitrate (Co(NO 3) 2), with an aluminium oxide and a copper oxide as promoting additives, at the following mixing wt% ratio: fuel/binder 4 - 11, additional fuel 6 - 12, combustion modifier 6 - 16, oxidant to balance. fuel/binder 4 - 11, additional fuel 6 - 12, combustion modifier 6 - 16, oxidant to balance.
A method of operating a mass spectrometer system (10, 100, 200) having a first ion trap (36, 40, 44) and a second ion trap, the method comprising: a) accumulating ions in the first ion trap (36, 40, 44); and b) mass-selectively ejecting ions out of the first ion trap (36, 40, 44) and into the second ion trap to accumulate ions in the second ion trap; c) mass-selectively ejecting ions out of the second ion trap while ions are being mass-selectively ejected from the first ion trap (36, 40, 44) into the second ion trap; d) controlling a scan rate of ions being mass-selectively ejected into the second ion trap from the first ion trap (36, 40, 44) using a first RF voltage and a first auxiliary AC excitation waveform provided to the first ion trap (36, 40, 44), and controlling a scan rate of ions being mass-selectively ejected out of the second ion trap using a second RF voltage and a second auxiliary AC excitation waveform provided to the second ion trap, such that during an operating time interval during step (c) a ratio of the first RF voltage to the second RF voltage remains substantially constant. a) accumulating ions in the first ion trap (36, 40, 44); and b) mass-selectively ejecting ions out of the first ion trap (36, 40, 44) and into the second ion trap to accumulate ions in the second ion trap; c) mass-selectively ejecting ions out of the second ion trap while ions are being mass-selectively ejected from the first ion trap (36, 40, 44) into the second ion trap; d) controlling a scan rate of ions being mass-selectively ejected into the second ion trap from the first ion trap (36, 40, 44) using a first RF voltage and a first auxiliary AC excitation waveform provided to the first ion trap (36, 40, 44), and controlling a scan rate of ions being mass-selectively ejected out of the second ion trap using a second RF voltage and a second auxiliary AC excitation waveform provided to the second ion trap, such that during an operating time interval during step (c) a ratio of the first RF voltage to the second RF voltage remains substantially constant.
A method implemented by a service layer entity in an Internet of Things, IoT, communication system, the method comprising: receiving, from a first entity, a plurality of requests to communicate with a second entity; determining that two or more of the plurality of requests to communicate with the second entity form a repetitive request pattern; creating, based on determining that two or more of the plurality of requests to communicate with the second entity form a repetitive request pattern, a scripted request resource, wherein the scripted request resource enables the service layer entity to send scripted requests to the second entity on behalf of the first entity, and wherein the scripted request resource comprises one or more conditions for triggering the generation of one or more scripted requests; sending, to the second entity and based on determining that one or more of the conditions for triggering the generation of the one or more scripted requests has been satisfied, a scripted request; and sending, to the first entity, an indication that the scripted request resource has been created and an identifier associated with the scripted request resource. receiving, from a first entity, a plurality of requests to communicate with a second entity; determining that two or more of the plurality of requests to communicate with the second entity form a repetitive request pattern; creating, based on determining that two or more of the plurality of requests to communicate with the second entity form a repetitive request pattern, a scripted request resource, wherein the scripted request resource enables the service layer entity to send scripted requests to the second entity on behalf of the first entity, and wherein the scripted request resource comprises one or more conditions for triggering the generation of one or more scripted requests; sending, to the second entity and based on determining that one or more of the conditions for triggering the generation of the one or more scripted requests has been satisfied, a scripted request; and sending, to the first entity, an indication that the scripted request resource has been created and an identifier associated with the scripted request resource.
Method for monitoring a gas passage of an obstructive sleep apnoea treatment unit comprising the steps of: - measuring at least one parameter representing an obstruction of the gas passage by condensed water; and - determining the presence of an obstruction by processing said at least one parameter, characterised in that the pressure and/or the flow of the gas in at least one part of the passage is periodically measured in order to obtain a pressure signal (P1, P2) and/or a flow signal indicating the circulation of air bubbles in the condensed water as a parameter representing an obstruction of the gas passage. - measuring at least one parameter representing an obstruction of the gas passage by condensed water; and - determining the presence of an obstruction by processing said at least one parameter, characterised in that the pressure and/or the flow of the gas in at least one part of the passage is periodically measured in order to obtain a pressure signal (P1, P2) and/or a flow signal indicating the circulation of air bubbles in the condensed water as a parameter representing an obstruction of the gas passage.
A strap comprising • at least a first area and at least a second area, the first and second areas (9a, 9b) being consecutive along a longitudinal axis of the strap, • at least a first group of warp threads, a second group of warp threads different from the first group of warp threads and a third group of warp threads different from the first and second groups of warp threads (10a, 10b), the first, second and third groups of warp threads (10a, 10b, 10c) having no common warp threads, the strap being woven by means of at least the first, second and third groups of warp threads (10a, 10b, 10c), and at least one weft thread (11a, 11b), the strap being devoid of the second group of warp threads in the second area, and the strap being devoid of the third group of warp threads in the first area, so as to form a first zone and a second zone with different mechanical features, the first group of warp threads passing through the first and second areas (9a, 9b), the first group of warp threads and the second group of warp threads being evenly distributed over the width of the strap in the first area. • at least a first area and at least a second area, the first and second areas (9a, 9b) being consecutive along a longitudinal axis of the strap, • at least a first group of warp threads, a second group of warp threads different from the first group of warp threads and a third group of warp threads different from the first and second groups of warp threads (10a, 10b), the first, second and third groups of warp threads (10a, 10b, 10c) having no common warp threads, the strap being woven by means of at least the first, second and third groups of warp threads (10a, 10b, 10c), and at least one weft thread (11a, 11b), the strap being devoid of the second group of warp threads in the second area, and the strap being devoid of the third group of warp threads in the first area, so as to form a first zone and a second zone with different mechanical features, the first group of warp threads passing through the first and second areas (9a, 9b), the first group of warp threads and the second group of warp threads being evenly distributed over the width of the strap in the first area. the strap being woven by means of at least the first, second and third groups of warp threads (10a, 10b, 10c), and at least one weft thread (11a, 11b), the strap being devoid of the second group of warp threads in the second area, and the strap being devoid of the third group of warp threads in the first area, so as to form a first zone and a second zone with different mechanical features, the first group of warp threads passing through the first and second areas (9a, 9b), the first group of warp threads and the second group of warp threads being evenly distributed over the width of the strap in the first area.
System for polishing treating internal walls of aquatic enclosures comprising at least one abrasive mixture tank and at least one surface treatment head in fluid communication with the abrasive mixture tank, means (10, 11) for moving the treatment head along the internal wall to be polished, and a supply for supplying an abrasive mixture to the treatment head with a substantially continuous flow, wherein the treatment head comprises a containment chamber in which a treatment disc is rotatably arranged, the treatment disc comprising a hollow rotating and feeding shaft connected to the supply, wherein the treatment disc is connected to a treatment disc motor, and wherein the treatment disc carries a friction foam, said disc, carrying its foam, being impregnated with abrasive particles in a continuous flow, thereby making said disc abrasive, characterized in that at least one treatment head thrust propeller is provided on the treatment head substantially opposite said containment chamber, and in that in operation, a thrust exerted by the treatment head propeller added to an external pressure of an ambient medium is slightly greater than an opposite force resulting from an internal pressure in the containment chamber, thereby enabling a layer of the abrasive mixture to be held between the foam and the internal wall.
A method for determining whether an object in a flow stream is a cell aggregate, the method comprising: detecting light from a sample comprising cells in a flow stream; generating frequency-encoded data of an object in the flow stream in an interrogation region to obtain spatial data comprising spatially encoded frequencies across the object; and determining whether the object in the flow stream is a cell aggregate based on the spatial data. detecting light from a sample comprising cells in a flow stream; generating frequency-encoded data of an object in the flow stream in an interrogation region to obtain spatial data comprising spatially encoded frequencies across the object; and determining whether the object in the flow stream is a cell aggregate based on the spatial data.
The compound of formula I or a pharmaceutically acceptable salt thereof, wherein R 1 is optionally substituted C 6-10 aryl; X 1 is CH and X 2 is N; or X 1 is N and X 2 is N; when X 1 is N, Z is C 1-6 alkylene; when X 1 is CH, Z is C 1-6 alkylene or -O-; q is 0, 1, or 2; s is 0, 1, or 2; R 2 is -NR 6 R 7; R 3, each time taken, is independently selected from the group consisting of C 1-6 alkyl, C 3-8 cycloalkyl, and trifluoromethyl; p is 0, 1, or 2; R 4, each time taken, is independently selected from the group consisting of C 1-6 alkyl, hydroxy, and halo; r is 0 or 1; R 6 is hydrogen; R 7 is C 1-6 alkyl or C 3-6 heterocyclyl; X 3 is CCH 3 and X 4 is N; or X 3 is N and X 4 is CCH 3. R 1 is optionally substituted C 6-10 aryl; X 1 is CH and X 2 is N; or X 1 is N and X 2 is N; when X 1 is N, Z is C 1-6 alkylene; when X 1 is CH, Z is C 1-6 alkylene or -O-; q is 0, 1, or 2; s is 0, 1, or 2; R 2 is -NR 6 R 7; R 3, each time taken, is independently selected from the group consisting of C 1-6 alkyl, C 3-8 cycloalkyl, and trifluoromethyl; p is 0, 1, or 2; R 4, each time taken, is independently selected from the group consisting of C 1-6 alkyl, hydroxy, and halo; r is 0 or 1; R 6 is hydrogen; R 7 is C 1-6 alkyl or C 3-6 heterocyclyl; X 3 is CCH 3 and X 4 is N; or X 3 is N and X 4 is CCH 3.