mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic levitation rotor sail, the rotor sail comprising: a body of the rotor sail; a coil unit provided at a lower portion of the body; an electromagnet configured to levitate the coil unit; a support member supporting the electromagnet; and a gap sensor provided at the support member and configured to measure a gap between the coil unit and the electromagnet, a locking means capable of fixing the body to a hull, a buffer member provided at the lower portion of the body, thereby being capable of preventing a collision between the coil unit and the support member, wherein the coil unit comprises: a levitation coil provided such that a vertical gap is formed between the electromagnet and the levitation coil; and an electric coil provided such that a horizontal gap is formed between the electromagnet and the electric coil, wherein the levitation coil levitates the body in a vertical direction, the electric coil is configured for allowing the body to rotate. a body of the rotor sail; a coil unit provided at a lower portion of the body; an electromagnet configured to levitate the coil unit; a support member supporting the electromagnet; and a gap sensor provided at the support member and configured to measure a gap between the coil unit and the electromagnet, a locking means capable of fixing the body to a hull, a buffer member provided at the lower portion of the body, thereby being capable of preventing a collision between the coil unit and the support member, wherein the coil unit comprises: a levitation coil provided such that a vertical gap is formed between the electromagnet and the levitation coil; and an electric coil provided such that a horizontal gap is formed between the electromagnet and the electric coil, wherein the levitation coil levitates the body in a vertical direction, the electric coil is configured for allowing the body to rotate. a levitation coil provided such that a vertical gap is formed between the electromagnet and the levitation coil; and an electric coil provided such that a horizontal gap is formed between the electromagnet and the electric coil, wherein the levitation coil levitates the body in a vertical direction, the electric coil is configured for allowing the body to rotate.
A method comprising: tracking RFID tags affixed to luggage items within an aircraft cabin to monitor distribution and/or movement of the luggage items within the aircraft cabin; and collecting RFID data from tracking the RFID tags for a plurality of flights; and optimizing boarding and/or deboarding process(es) based on the RFID data. tracking RFID tags affixed to luggage items within an aircraft cabin to monitor distribution and/or movement of the luggage items within the aircraft cabin; and collecting RFID data from tracking the RFID tags for a plurality of flights; and optimizing boarding and/or deboarding process(es) based on the RFID data.
A negative electrode active material containing particle of the negative electrode active material, wherein the particle of the negative electrode active material contains particle of a silicon compound containing a silicon compound (SiO x : 0.5≤x≤1.6), the particle of the silicon compound contains lithium, and the particle of the negative electrode active material has a total content rate of a polyphenylene compound component measured by TPD-MS of 1 ppm by mass or more and 4,000 ppm by mass or less. the particle of the negative electrode active material contains particle of a silicon compound containing a silicon compound (SiO x : 0.5≤x≤1.6), the particle of the silicon compound contains lithium, and the particle of the negative electrode active material has a total content rate of a polyphenylene compound component measured by TPD-MS of 1 ppm by mass or more and 4,000 ppm by mass or less.
An imaging system for imaging an elongated region of interest of an object, comprising: a C-arm acquisition unit , and a processing unit , wherein the acquisition unit is configured to acquire first image data of the object to be imaged in a first rotational scan with a first geometric imaging parameter, wherein the acquisition unit is configured to acquire second image data of the object to be imaged in a second rotational scan with a second, different geometric imaging parameter, wherein the processing unit is configured to combine the first and second image data into volume data, wherein the second geometric imaging parameter is definable based on object specific data so as to align the volume data with the elongated region of interest of the object to be imaged, characterised in that the first and second geometric imaging parameters are distinguishable by i) a normal displacement of an isocenter position relative to a scanning direction of the imaging system , the scanning direction extending along a longitudinal direction of the elongated region of interest, ii) an orientation of the rotational scan plane of the C-arm acquisition unit or iii) an orientation of an X-ray detector of the imaging system . a C-arm acquisition unit , and a processing unit , wherein the acquisition unit is configured to acquire first image data of the object to be imaged in a first rotational scan with a first geometric imaging parameter, wherein the acquisition unit is configured to acquire second image data of the object to be imaged in a second rotational scan with a second, different geometric imaging parameter, wherein the processing unit is configured to combine the first and second image data into volume data, wherein the second geometric imaging parameter is definable based on object specific data so as to align the volume data with the elongated region of interest of the object to be imaged, characterised in that the first and second geometric imaging parameters are distinguishable by i) a normal displacement of an isocenter position relative to a scanning direction of the imaging system , the scanning direction extending along a longitudinal direction of the elongated region of interest, ii) an orientation of the rotational scan plane of the C-arm acquisition unit or iii) an orientation of an X-ray detector of the imaging system .
A packet processing method, the method comprising: identifying (S101), by a first device, a received first packet through a first flexible Ethernet, FlexE, shim layer disposed in the first device; when (S102) identifying that the first packet is a FlexE packet, performing, by the first device, timeslot mapping on the first packet, then encapsulating the first packet into a first gigabit passive optical network encapsulation mode, GEM, frame, selecting one first identifier from at least one identifier reserved for a FlexE service, and allocating the first identifier to the first GEM frame, wherein the first identifier is used to indicate that the first GEM frame is a GEM frame corresponding to the FlexE packet; and sending (S103), by the first device, the first GEM frame that carries the first identifier. identifying (S101), by a first device, a received first packet through a first flexible Ethernet, FlexE, shim layer disposed in the first device; when (S102) identifying that the first packet is a FlexE packet, performing, by the first device, timeslot mapping on the first packet, then encapsulating the first packet into a first gigabit passive optical network encapsulation mode, GEM, frame, selecting one first identifier from at least one identifier reserved for a FlexE service, and allocating the first identifier to the first GEM frame, wherein the first identifier is used to indicate that the first GEM frame is a GEM frame corresponding to the FlexE packet; and sending (S103), by the first device, the first GEM frame that carries the first identifier.
A method for transferring a folding box stack (FSS) in a packaging machine, the folding box stack (FSS) being clamped in between at least two gripping jaws of a gripping apparatus in a clamping direction (S) corresponding to the stack direction (H) of the folding box stack (FSS), and the gripping apparatus then being transferred together with the folding box stack (FSS) by means of a manipulator , wherein the folding box stack (FSS) is compressed and prestressed in the stack direction (H) by means of at least two pressure elements before the attachment of the gripping jaws , characterized in that a suction apparatus being brought into contact with the surface of the folding box stack (FSS), and the suction apparatus being activated at least temporarily during the transfer of the folding box stack (FSS), wherein the suction apparatus is lowered onto the folding box stack (FSS) by means of an adjusting apparatus after the folding box stack (FSS) is clamped in between the gripping jaws by means of the clamping apparatus (S).
A method of cleaning an iron comprising an iron soleplate surmounted by a heating body comprising a steam chamber and a steam distribution circuit configured to feed steam outlet ports formed in the iron soleplate , the steam distribution circuit having a scale recovery cavity including a discharge port closed by a removable cap accessible from the outside of the iron , the steam chamber being intended to be supplied with water by means of a feed pump (P), in which the method of cleaning comprises: - a first step of injecting water into the steam chamber by means of the feed pump (P), the operating time of the feed pump (P) during the first water injection step being greater than the time required for the volume of water sent by the feed pump (P) to cover most of the bottom of the steam chamber and advantageously greater than the time required for the water to rise through the steam distribution circuit until it exits through at least one steam outlet port of the iron soleplate , - a second step of heating the steam chamber to a temperature greater than 100°C, to boil the water present in the steam chamber, - a third step of injecting water into the steam chamber by means of the feed pump (P), the iron being maintained, during the third water injection step, in a cleaning position in which the water injected by the feed pump (P) into the steam chamber causes the formation of scale particles in the scale recovery cavity , - a fourth step during which the operation of the feed pump (P) is interrupted and the steam chamber is brought to a temperature above 150°C to rapidly vaporise the water present in the steam chamber , and - a fifth step of removing scale collected in the scale recovery cavity by opening the removable cap . - a first step of injecting water into the steam chamber by means of the feed pump (P), the operating time of the feed pump (P) during the first water injection step being greater than the time required for the volume of water sent by the feed pump (P) to cover most of the bottom of the steam chamber and advantageously greater than the time required for the water to rise through the steam distribution circuit until it exits through at least one steam outlet port of the iron soleplate , - a second step of heating the steam chamber to a temperature greater than 100°C, to boil the water present in the steam chamber, - a third step of injecting water into the steam chamber by means of the feed pump (P), the iron being maintained, during the third water injection step, in a cleaning position in which the water injected by the feed pump (P) into the steam chamber causes the formation of scale particles in the scale recovery cavity , - a fourth step during which the operation of the feed pump (P) is interrupted and the steam chamber is brought to a temperature above 150°C to rapidly vaporise the water present in the steam chamber , and - a fifth step of removing scale collected in the scale recovery cavity by opening the removable cap .
A turbomachine with a housing having a first housing section (14, 17; 32, 45; 49) with a central chamber and an outer chamber extending around the central chamber , and a first fan wheel which is accommodated in the central chamber of the first housing section (14, 17; 32, 45) of the housing and can be driven in rotation about an axis , wherein the first housing section (14, 17; 32, 45; 49) and a second housing section (18, 19; 43, 46; 50) of the housing are arranged on different sides of a sectional plane (A) perpendicular to the axis , wherein the second housing section (18, 19; 43, 46; 50) has a central chamber in which is arranged a second fan wheel which can be driven in rotation about the axis , and an outer chamber extending around the axis and the central chamber , wherein the housing has a first passage which connects the central chamber of the first housing section (14, 17; 32, 45; 49) with the outer chamber of the second housing section (18, 19; 43, 46) and a second passage which connects the outer chamber of the first housing section (14, 17; 32, 45; 49) with the central chamber of the second housing section (18, 19; 43, 46), wherein the passages cross the sectional plane (A) of the housing, and wherein the fan wheels are mounted on a common shaft and are shaped as a mirror image of one another, characterized in that the first passage is separated from the central chamber of the second housing section (18, 19; 43, 46) and/or from the outer chamber of the first housing section (14, 17; 32, 45) by a wall which is located on a conical surface which extends to the second housing section (18, 19; 43, 46).
An instrument for applying reagents to a group of microscope slides having: a plurality of slide supports; a first set of one or more reagent containers ; a second set of one or more reagent containers ; a group fluid dispenser , for dispensing fluid drawn from one or more reagent containers of the first set of reagent containers; wherein the instrument is characterized in that it comprises a plurality of slide staining assemblies into each of which a batch of slides can be loaded, each slide staining assembly having a batch fluid dispenser for dispensing fluid drawn from one or more reagent containers of the second set of reagent containers, and wherein the instrument is configured such that the group dispenser can dispense reagent onto each slide in a batch while simultaneously the batch fluid dispensers associated with each slide staining assembly dispense reagent. a plurality of slide supports; a first set of one or more reagent containers ; a second set of one or more reagent containers ; a group fluid dispenser , for dispensing fluid drawn from one or more reagent containers of the first set of reagent containers; wherein the instrument is characterized in that it comprises a plurality of slide staining assemblies into each of which a batch of slides can be loaded, each slide staining assembly having a batch fluid dispenser for dispensing fluid drawn from one or more reagent containers of the second set of reagent containers, and wherein the instrument is configured such that the group dispenser can dispense reagent onto each slide in a batch while simultaneously the batch fluid dispensers associated with each slide staining assembly dispense reagent.
A method of manufacturing a press-molded body , comprising: a step of placing a preheated X material in a mold ; a step of closing the mold , starting applying pressure to a part of the X material, and then injecting a Y material, which is a kneaded material, into the mold ; and a step of cold pressing the X material and the Y material in the mold to integrally mold the X material and the Y material, wherein the X material contains a carbon fiber A having a weight average fiber length Lw A and a thermoplastic resin Rx, the Y material contains a carbon fiber B having a weight average fiber length Lw B and a thermoplastic resin Ry, wherein Lw B < Lw A , Lw A is 1 mm or more and 100 mm or less, the X material has a springback amount of more than 1.0 and less than 14.0, wherein the springback amount is a value obtained by dividing a plate thickness of a preheated molding material by a plate thickness of the molding material before preheating, and when a plate thickness of the X material before preheating is t X0 and a plate thickness of preheated X material is t X1 , the springback amount of the X material is t X1 /t X0 , the press-molded body has a standing plane portion and a top plane portion , in the cold pressing, the Y material is caused to flow from a cavity region other than a cavity region for forming the standing plane portion to a cavity region for forming the standing plane portion , and a thickness t1 of the standing plane portion and a thickness t2 of the top plane portion satisfy t1 > t2. a step of placing a preheated X material in a mold ; a step of closing the mold , starting applying pressure to a part of the X material, and then injecting a Y material, which is a kneaded material, into the mold ; and a step of cold pressing the X material and the Y material in the mold to integrally mold the X material and the Y material, wherein the X material contains a carbon fiber A having a weight average fiber length Lw A and a thermoplastic resin Rx, the Y material contains a carbon fiber B having a weight average fiber length Lw B and a thermoplastic resin Ry, wherein Lw B < Lw A , Lw A is 1 mm or more and 100 mm or less, the X material has a springback amount of more than 1.0 and less than 14.0, wherein the springback amount is a value obtained by dividing a plate thickness of a preheated molding material by a plate thickness of the molding material before preheating, and when a plate thickness of the X material before preheating is t X0 and a plate thickness of preheated X material is t X1 , the springback amount of the X material is t X1 /t X0 , the press-molded body has a standing plane portion and a top plane portion , in the cold pressing, the Y material is caused to flow from a cavity region other than a cavity region for forming the standing plane portion to a cavity region for forming the standing plane portion , and a thickness t1 of the standing plane portion and a thickness t2 of the top plane portion satisfy t1 > t2.
An organic photosensitive optoelectronic device comprising: two electrodes comprising an anode and a cathode in superposed relation; at least one donor material and at least one acceptor material, wherein the donor material and the acceptor material form a photo-active region between the two electrodes; and characterized in a compound blocking layer located between the acceptor material and the cathode, wherein the compound blocking layer comprises at least one electron conducting material and wide-gap electron conducting exciton blocking layer and both layers being directly adjacent to each other; wherein the at least one electron conducting material comprises 3,4,9,10 perylenetetracarboxylic bisbenzimidazole (PTCBI), and the at least one wide-gap electron conducting exciton blocking layer comprises 1,4,5,8-napthalene-tetracarboxylic-dianhydride (NTCDA). two electrodes comprising an anode and a cathode in superposed relation; at least one donor material and at least one acceptor material, wherein the donor material and the acceptor material form a photo-active region between the two electrodes; and characterized in a compound blocking layer located between the acceptor material and the cathode, wherein the compound blocking layer comprises at least one electron conducting material and wide-gap electron conducting exciton blocking layer and both layers being directly adjacent to each other;
Intermediate channel for arrangement between an outlet of a low-pressure compressor and an inlet of a high-pressure compressor of a turbomachine, in particular of an aircraft engine, comprising an outer wall and an inner wall , between which an optional outflow stator ring and at least one strut , which is radial with respect to a central axis of the intermediate channel , are arranged, the intermediate channel being additively manufactured at least in part, characterized in that the radial profile of the at least one strut lies, at least in the region of its trailing edge (HK), at least substantially within a first boundary contour (K1) and a second boundary contour (K2), the first boundary contour (K1) being defined by formula (I) y = 71.14 x 5 − 179.74 x 4 + 134.76 x 3 − 2.6539 x 2 − 27.72 x + 5.5815 ° and the second boundary contour being defined by formula (II) y = 71.14 x 5 − 179.74 x 4 + 134.76 x 3 − 2.6539 x 2 − 27.72 x + 1.5815 ° in which x denotes the percentage radial height of the strut from the inner wall of the intermediate channel in the region of its trailing edge (HK), and y denotes the gradual deviation in the circumferential direction from a hypothetical linear trailing edge contour having a constant radial profile at 0°. an outer wall and an inner wall , between which an optional outflow stator ring and at least one strut , which is radial with respect to a central axis of the intermediate channel , are arranged, the intermediate channel being additively manufactured at least in part, characterized in that the radial profile of the at least one strut lies, at least in the region of its trailing edge (HK), at least substantially within a first boundary contour (K1) and a second boundary contour (K2), the first boundary contour (K1) being defined by formula (I) y = 71.14 x 5 − 179.74 x 4 + 134.76 x 3 − 2.6539 x 2 − 27.72 x + 5.5815 ° and the second boundary contour being defined by formula (II) y = 71.14 x 5 − 179.74 x 4 + 134.76 x 3 − 2.6539 x 2 − 27.72 x + 1.5815 ° in which x denotes the percentage radial height of the strut from the inner wall of the intermediate channel in the region of its trailing edge (HK), and y denotes the gradual deviation in the circumferential direction from a hypothetical linear trailing edge contour having a constant radial profile at 0°.
A process for producing urea, the process comprising a. subjecting ammonia and carbon dioxide to urea forming conditions in a urea synthesis section, thereby producing a urea aqueous stream; b. sending the urea aqueous stream to a recovery section; c. subjecting, in the recovery section, the urea aqueous stream to recovery of unreacted ammonia and carbon dioxide from said urea aqueous stream, thereby producing recovered ammonia and carbon dioxide, and a purified urea aqueous stream; d. recycling said recovered ammonia and carbon dioxide to the synthesis section; e. sending the purified urea aqueous stream to a concentration section; f. subjecting, in the concentration section, the purified urea aqueous stream to removal of water, thereby producing a concentrated urea stream; wherein the process further comprises g. adding, downstream of the concentration section, liquid ammonia to the concentrated urea stream, to give a concentration of ammonia after addition in the range of from 500 to 5000 ppm by weight, wherein the process is conducted in a urea plant provided with an abatement section, for ammonia-containing gas emissions. a. subjecting ammonia and carbon dioxide to urea forming conditions in a urea synthesis section, thereby producing a urea aqueous stream; b. sending the urea aqueous stream to a recovery section; c. subjecting, in the recovery section, the urea aqueous stream to recovery of unreacted ammonia and carbon dioxide from said urea aqueous stream, thereby producing recovered ammonia and carbon dioxide, and a purified urea aqueous stream; d. recycling said recovered ammonia and carbon dioxide to the synthesis section; e. sending the purified urea aqueous stream to a concentration section; f. subjecting, in the concentration section, the purified urea aqueous stream to removal of water, thereby producing a concentrated urea stream; wherein the process further comprises g. adding, downstream of the concentration section, liquid ammonia to the concentrated urea stream, to give a concentration of ammonia after addition in the range of from 500 to 5000 ppm by weight,