mhurhangee/ep-ind-claims huggingface dataset:
An aerosol-generating article (2, 102) comprising: an aerosol-forming substrate (4, 104); a combustible heat source (3, 103); at least one layer of fibre-reinforced aerogel (5, 105) circumscribing at least a portion of the length of the combustible heat source (3, 103); one or more airflow pathways along which air may be drawn through the aerosol-generating article (2, 102) for inhalation by a user; and one or more non-combustible, substantially air impermeable barriers (6, 106, 117) between the combustible heat source (3, 103) and the aerosol forming substrate (4, 104). an aerosol-forming substrate (4, 104); a combustible heat source (3, 103); at least one layer of fibre-reinforced aerogel (5, 105) circumscribing at least a portion of the length of the combustible heat source (3, 103); one or more airflow pathways along which air may be drawn through the aerosol-generating article (2, 102) for inhalation by a user; and one or more non-combustible, substantially air impermeable barriers (6, 106, 117) between the combustible heat source (3, 103) and the aerosol forming substrate (4, 104).
A method of photonic packet switching, the method characterized by comprising: receiving, by a photonic switching fabric from a first top-of-rack, TOR, switch, a destination port request corresponding to a first photonic packet and a first period of time, wherein the destination port request comprises a first output port; determining (254, 466) whether the first output port is available during the first period of time; receiving, by the photonic switching fabric from the first TOR switch, the first photonic packet; routing the first photonic packet to the first output port when the first output port is available during the first period of time; and routing the first photonic packet to an alternative output port when the first output port is not available during the first period of time; transmitting (262, 472) the first photonic packet by the photonic switching fabric to a second TOR switch, when the first output port is available during the first period of time transmitting the first photonic packet by the photonic switching fabric to the first TOR switch when the first output port is not available during the first period of time. receiving, by a photonic switching fabric from a first top-of-rack, TOR, switch, a destination port request corresponding to a first photonic packet and a first period of time, wherein the destination port request comprises a first output port; determining (254, 466) whether the first output port is available during the first period of time; receiving, by the photonic switching fabric from the first TOR switch, the first photonic packet; routing the first photonic packet to the first output port when the first output port is available during the first period of time; and routing the first photonic packet to an alternative output port when the first output port is not available during the first period of time; transmitting (262, 472) the first photonic packet by the photonic switching fabric to a second TOR switch, when the first output port is available during the first period of time transmitting the first photonic packet by the photonic switching fabric to the first TOR switch when the first output port is not available during the first period of time.
Process for producing products by contacting particles of Geldart class C having a particle size d 90 < 20 μm in a stirred fixed bed with a gas phase, wherein the treatment of the particles takes place in a process zone of a gas-traversed reactor, the process zone being the region in the reactor in which the stirred particle bed is brought into contact with the gas phase, and the particles are circulated in the process zone by means of a close-clearance stirrer during the contacting with the gas phase, where the stirrer mechanism is close-clearance when in equation 1 W h = u R h u B h for half of all values of h the close clearance W ( h) in the process zone W ( h) is > 0.9, where u R ( h) = the outer circumference of the stirrer mechanism in the sectional face at the height coordinate h and u B ( h) = the inner circumference of the reactor in the sectional face at the height coordinate h. where the stirrer mechanism is close-clearance when in equation 1 W h = u R h u B h for half of all values of h the close clearance W ( h) in the process zone W ( h) is > 0.9, where u R ( h) = the outer circumference of the stirrer mechanism in the sectional face at the height coordinate h and u B ( h) = the inner circumference of the reactor in the sectional face at the height coordinate h.
Method for operating an air-conditioning unit of a vehicle with at least one vent (1.1) comprising an operating element (1.10) wherein the vent volume is set by means of a touch-sensitive actuation surface (1.11) of the operating element (1.10), wherein - when the operating element (1.10) is actuated for a defined first time interval, a slide control function is activated for setting the vent volume, characterised in that - when the operating element (1.10) is actuated for a defined second time interval, which is shorter than the first time interval, a pop-up menu (3.1) with an optical display of the numeric value of the current vent volume is shown on an on-board monitor of the vehicle to set the vent volume and - by means of an additional operating element (2.1, 2.2) in the pop-up menu (3.1), the vent volume is set with simultaneous optical display of the numeric value of the set vent volume. - when the operating element (1.10) is actuated for a defined first time interval, a slide control function is activated for setting the vent volume, characterised in that - when the operating element (1.10) is actuated for a defined second time interval, which is shorter than the first time interval, a pop-up menu (3.1) with an optical display of the numeric value of the current vent volume is shown on an on-board monitor of the vehicle to set the vent volume and - by means of an additional operating element (2.1, 2.2) in the pop-up menu (3.1), the vent volume is set with simultaneous optical display of the numeric value of the set vent volume.
A patient interface (1000, 1100, 1200, 1300, 1400, 1900, 2000) comprising: a body adapted to form a seal with a user's face, the body comprising: an inner layer (1206, 1806, 1906, 2006); an outer layer (1208, 1308, 1808, 1908, 2008); and an insulation space (1002, 1102, 1202, 1402) defined by a space between the inner layer (1206, 1806, 1906, 2006) and outer layer (1208, 1308, 1808, 1908, 2008); and a coupling for fluid connection to a gas delivery system; characterised in that the insulation space (1002, 1102, 1202, 1402) is sealed from an interior and an exterior of the patient interface (1000, 1100, 1200, 1300, 1400, 1900, 2000) and wherein the insulation space (1002, 1102, 1202, 1402) is at least a partial vacuum. a body adapted to form a seal with a user's face, the body comprising: an inner layer (1206, 1806, 1906, 2006); an outer layer (1208, 1308, 1808, 1908, 2008); and an insulation space (1002, 1102, 1202, 1402) defined by a space between the inner layer (1206, 1806, 1906, 2006) and outer layer (1208, 1308, 1808, 1908, 2008); and an inner layer (1206, 1806, 1906, 2006); an outer layer (1208, 1308, 1808, 1908, 2008); and an insulation space (1002, 1102, 1202, 1402) defined by a space between the inner layer (1206, 1806, 1906, 2006) and outer layer (1208, 1308, 1808, 1908, 2008); and a coupling for fluid connection to a gas delivery system; characterised in that the insulation space (1002, 1102, 1202, 1402) is sealed from an interior and an exterior of the patient interface (1000, 1100, 1200, 1300, 1400, 1900, 2000) and wherein the insulation space (1002, 1102, 1202, 1402) is at least a partial vacuum.
Method for producing a multilayer body, having the following steps: a) providing a carrier ply on which at least one LED is arranged; b) providing a decorative ply; c) overmoulding a plastic ply onto the carrier ply and/or the decorative ply in an injection moulding tool; and that a conductor track layer for contacting the at least one illuminant is applied to the carrier ply, wherein the conductor track layer is generated by vapour deposition, sputtering, galvanic deposition or lamination of a metal and/or by applying conductive pigments, nanoparticles, ITO, ATO, conductive organic polymers, carbon nanotubes, graphene or carbon black with a layer thickness from 10nm to 50μm, and wherein the conductor track layer comprises at least one coupling surface, wherein, seen perpendicularly to the carrier ply, a complementary coupling surface is applied to the side of the carrier ply facing away from the at least one illuminant, and/or wherein the conductor track layer comprises at least one coil and/or antenna structure, wherein, seen perpendicularly to the carrier ply, a complementary coil and/or antenna structure is applied to the side of the carrier ply facing away from the at least one illuminant, and/or wherein at least one electric contact element is applied to the carrier ply, said contact element electrically contacting the conductor track layer and being at most partially enclosed by the plastic mass when injection moulding the plastic ply, and/or wherein at least one partial region of the conductor track layer is not enclosed by the plastic mass when injection moulding the plastic ply and/or a partial region of the carrier ply, on which at least one partial region of the conductor track layer is arranged, is detached from the plastic ply after injection moulding the plastic ply, and at least one optical auxiliary layer is applied to the decorative ply and/or the carrier ply and/or the overmoulded plastic ply, and recesses are provided in the decorative ply, which also penetrate the optical auxiliary layer. a) providing a carrier ply on which at least one LED is arranged; b) providing a decorative ply; c) overmoulding a plastic ply onto the carrier ply and/or the decorative ply in an injection moulding tool;
A topical composition for the treatment and prevention of an ectoparasitic infestation comprising: from 2 % (w/w) to 15 % (w/w) fipronil; from 30 % (w/w) to 55 % (w/w) permethrin; and a neutral oil(s) and N-methyl pyrrolidone, wherein said neutral oil(s) and N-methyl pyrrolidone are present in a weight: weight ratio of from 1:2.0 to 1:3.5, neutral oil(s) to N-methyl pyrrolidone; and wherein said neutral oil(s) is a triglyceride of fractionated plant fatty acids with chain lengths of C 8 to C 10. from 2 % (w/w) to 15 % (w/w) fipronil; from 30 % (w/w) to 55 % (w/w) permethrin; and a neutral oil(s) and N-methyl pyrrolidone, wherein said neutral oil(s) and N-methyl pyrrolidone are present in a weight: weight ratio of from 1:2.0 to 1:3.5, neutral oil(s) to N-methyl pyrrolidone; and wherein said neutral oil(s) is a triglyceride of fractionated plant fatty acids with chain lengths of C 8 to C 10.
A method for selecting nozzles (219, 221), the method comprising: analyzing content of a print job sent to a printer (143, 343), wherein the printer (143, 343) includes a printhead (117, 217) having a plurality of nozzles (219, 221) arranged in a primitive; selecting nozzles (219, 221) of the plurality of nozzles (219, 221) to print a portion of the print job based on the content of the print job; determining a peak number of the selected nozzles (219, 221) to print the print job; assigning firing reservations to the selected nozzles (219, 221), wherein a total number of the firing reservations assigned to the selected nozzles (219, 221) is comparatively less than a total number of the plurality of nozzles (219, 221) and is no more than the peak number of the selected nozzles (219, 221) sending firing data only to the first set of selected nozzles (219, 221) to reduce an amount of firing data sent to the plurality of nozzles (219, 221); firing the first set of the selected nozzles (219, 221) based on the firing data to print a portion of the print job; and reassigning at least some of the firing reservations to a second set of addresses associated with a second set of the selected nozzles (219, 221). analyzing content of a print job sent to a printer (143, 343), wherein the printer (143, 343) includes a printhead (117, 217) having a plurality of nozzles (219, 221) arranged in a primitive; selecting nozzles (219, 221) of the plurality of nozzles (219, 221) to print a portion of the print job based on the content of the print job; determining a peak number of the selected nozzles (219, 221) to print the print job; assigning firing reservations to the selected nozzles (219, 221), wherein a total number of the firing reservations assigned to the selected nozzles (219, 221) is comparatively less than a total number of the plurality of nozzles (219, 221) and is no more than the peak number of the selected nozzles (219, 221) sending firing data only to the first set of selected nozzles (219, 221) to reduce an amount of firing data sent to the plurality of nozzles (219, 221); firing the first set of the selected nozzles (219, 221) based on the firing data to print a portion of the print job; and reassigning at least some of the firing reservations to a second set of addresses associated with a second set of the selected nozzles (219, 221).
Valve, in particular pressure control valve, consisting of a feed area provided in flow direction (a) of the medium in front of a globe valve, wherein the globe valve can be closed by a loose closing element provided in the feed area, wherein an activating rod movable by a rod drive angles the closing element against the flow direction (a) of the medium with respect to the valve seat of the globe valve, characterized in that in the feed area a flow guiding device is provided, and the flow guiding device is provided with an inlet area and a discharge area spaced thereto in flow direction (a) of the medium for a defined guide of the flow of medium flowing in the inlet area, wherein the flow guiding device has at least one channel area (50, 51, 52, 53) delimited by at least a channel wall and a channel bottom sloping either cone-like, cone segment-like or diagonally towards the valve seat, and setting the medium flowing through the at least one channel area (50, 51, 52, 53) at least partly in a helical-like twist.
Process for preparing organopolysiloxanes having amino groups, wherein silanes of the general formula R 1 -O-SiR 2 -O-R 1 are reacted with silanes of the general formula (R 3 2 N)-X-SiR 4 2 -O-R 2 and water, where the radicals R can be identical or different and are monovalent, optionally substituted hydrocarbon radicals in which nonadjacent methylene units can be replaced by -O- or -NH- groups, R 1 and R 2 can, independently of one another, be identical or different and are monovalent, optionally substituted hydrocarbon radicals, the radicals R 3 can be identical or different and are each a monovalent, optionally substituted hydrocarbon radical or hydrogen atom, the radicals R 4 can be identical or different and are monovalent, optionally substituted hydrocarbon radicals and X is an alkylene radical which has from 1 to 20 carbon atoms and in which nonadjacent methylene units can be replaced by -O- or -NH- groups. silanes of the general formula R 1 -O-SiR 2 -O-R 1 are reacted with silanes of the general formula (R 3 2 N)-X-SiR 4 2 -O-R 2 and water, the radicals R can be identical or different and are monovalent, optionally substituted hydrocarbon radicals in which nonadjacent methylene units can be replaced by -O- or -NH- groups, R 1 and R 2 can, independently of one another, be identical or different and are monovalent, optionally substituted hydrocarbon radicals, the radicals R 3 can be identical or different and are each a monovalent, optionally substituted hydrocarbon radical or hydrogen atom, the radicals R 4 can be identical or different and are monovalent, optionally substituted hydrocarbon radicals and X is an alkylene radical which has from 1 to 20 carbon atoms and in which nonadjacent methylene units can be replaced by -O- or -NH- groups.
A method for load balancing in a cluster storage system, comprising: identifying a plurality of source nodes within the cluster storage system from which to move a plurality of data objects, wherein each source node comprises a node with a total load exceeding a threshold value; dividing the plurality of source nodes into a plurality of sets of source nodes, wherein each of the plurality of sets of source nodes comprises one source node or a small subset of source nodes with overlapping search radii, a search radius of a source node corresponding to a network distance from the source node for searching for another node; selecting the plurality of data objects to move from each of the plurality of sets of source nodes, wherein the plurality of data objects are chosen in each node such that the total load of each source node no longer exceeds the threshold value; determining a plurality of target nodes within a specific search radius from each of the plurality of sets of source nodes based on the total load of each target node; concurrently moving the plurality of data objects from each of the plurality of sets of source nodes to the plurality of target nodes, comprising minimizing interference with foreground running applications in the network during reconfiguration of the data objects by specifying a resource bandwidth budget or separating foreground traffic and background traffic via the use of transport protocols. identifying a plurality of source nodes within the cluster storage system from which to move a plurality of data objects, wherein each source node comprises a node with a total load exceeding a threshold value; dividing the plurality of source nodes into a plurality of sets of source nodes, wherein each of the plurality of sets of source nodes comprises one source node or a small subset of source nodes with overlapping search radii, a search radius of a source node corresponding to a network distance from the source node for searching for another node; selecting the plurality of data objects to move from each of the plurality of sets of source nodes, wherein the plurality of data objects are chosen in each node such that the total load of each source node no longer exceeds the threshold value; determining a plurality of target nodes within a specific search radius from each of the plurality of sets of source nodes based on the total load of each target node; concurrently moving the plurality of data objects from each of the plurality of sets of source nodes to the plurality of target nodes, comprising minimizing interference with foreground running applications in the network during reconfiguration of the data objects by specifying a resource bandwidth budget or separating foreground traffic and background traffic via the use of transport protocols.
An electronic device, comprising: a display unit disposed on a front surface; a lens module disposed on a rear surface; a motor unit disposed at a first side of the lens module, the motor unit configured to provide a driving force to the lens module; and a side key positioned at a second side of the lens module, wherein the side key is disposed on any one of a number of side end parts of the electronic device, wherein the second side of the lens module, where the side key is positioned, is opposite to the first side of the lens module, wherein the lens module is disposed between the side key and the motor unit and the side key and the motor unit are positioned at opposite sides of the device, CHARACTERISED IN THAT the lens module includes a zoom lens, and is positioned in a first longitudinal region of two longitudinal regions, where the device is divided into the two longitudinal regions in a longitudinal direction, and a driving shaft of the motor unit extends from the motor unit in a direction approaching the lens module in the longitudinal direction of the electronic device, and wherein the driving shaft is configured to transmit the driving force to a lens driving unit positioned at the one side of the lens module. a display unit disposed on a front surface; a lens module disposed on a rear surface; a motor unit disposed at a first side of the lens module, the motor unit configured to provide a driving force to the lens module; and a side key positioned at a second side of the lens module, wherein the side key is disposed on any one of a number of side end parts of the electronic device, wherein the second side of the lens module, where the side key is positioned, is opposite to the first side of the lens module, wherein the lens module is disposed between the side key and the motor unit and the side key and the motor unit are positioned at opposite sides of the device, CHARACTERISED IN THAT the lens module includes a zoom lens, and is positioned in a first longitudinal region of two longitudinal regions, where the device is divided into the two longitudinal regions in a longitudinal direction, and a driving shaft of the motor unit extends from the motor unit in a direction approaching the lens module in the longitudinal direction of the electronic device, and wherein the driving shaft is configured to transmit the driving force to a lens driving unit positioned at the one side of the lens module.
A tunneling machine comprising an elongated frame for being inserted into a work area inside a tunnel or an unfinished tunnel, said frame defining a front end and a rear end, said tunneling machine further comprising: an actuator for moving said frame within said work area, an excavating mechanism located at said front end of said frame for excavating particulate material from said work area, a buffer tank located between said front end and said rear end of said frame, said buffer tank comprises a sloping bottom, a first conveyor for receiving said particulate material from said excavating mechanism at said front end of said frame and transporting said particulate material to said buffer tank, a soil transporter for receiving said particulate material from said buffer tank at said rear end of said frame and transporting said particulate material from said rear end of said frame to the outside of said work area, and a second conveyor for transporting said particulate material from said buffer tank to said soil transporter, said second conveyor running only when said soil transporter is at said rear end of said frame, said second conveyor is extending from said sloping bottom of said buffer tank to the top of said soil transporter, said second conveyor comprises a primary conveyor extending within said buffer tank and reaching from the bottom of the buffer tank to the outside of the buffer tank, and a secondary conveyor extending outside said buffer tank, said secondary conveyor reaching fully enclosed from the primary conveyer to the soil transporter. an actuator for moving said frame within said work area, an excavating mechanism located at said front end of said frame for excavating particulate material from said work area, a buffer tank located between said front end and said rear end of said frame, said buffer tank comprises a sloping bottom, a first conveyor for receiving said particulate material from said excavating mechanism at said front end of said frame and transporting said particulate material to said buffer tank, a soil transporter for receiving said particulate material from said buffer tank at said rear end of said frame and transporting said particulate material from said rear end of said frame to the outside of said work area, and a second conveyor for transporting said particulate material from said buffer tank to said soil transporter, said second conveyor running only when said soil transporter is at said rear end of said frame, said second conveyor is extending from said sloping bottom of said buffer tank to the top of said soil transporter, said second conveyor comprises a primary conveyor extending within said buffer tank and reaching from the bottom of the buffer tank to the outside of the buffer tank, and a secondary conveyor extending outside said buffer tank, said secondary conveyor reaching fully enclosed from the primary conveyer to the soil transporter.