mhurhangee/ep-ind-claims huggingface dataset:
A hand-held vacuum cleaner comprising a cyclonic separation apparatus (8,208), the cyclonic separation apparatus comprising: a first cyclonic separating unit (160,360) comprising a hollow substantially cylindrical dirt container (120,130, 320,330) with a longitudinal central axis (21,321) and comprising an air inlet port (126,326) arranged tangentially to the dirt container so as to cause air to flow in a helical path around the cylindrical dirt container; a second cyclonic separating unit (150,350) comprising a plurality of cyclones (84,284) each with an inlet port (88,288), an axial outlet port (56,256) and a discharge nozzle (87,287); and a substantially cylindrical intermediate wall (82,90,110,282,290,310) arranged within the dirt container, wherein the intermediate wall comprises an air permeable wall arranged as an air flow outlet from the first cyclonic separating unit to the inlet ports (88,288) of the plurality of cyclones (84,284), wherein the second cyclonic separating unit is located within the dirt container, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, and wherein the first and second cyclonic separating units are arranged to deposit material separated from air flow at a longitudinal end (130,330) of the dirt container, wherein the cyclonic separation apparatus comprises at least one protruding lip (104,128,304,328) arranged to impede return of separated material from said longitudinal end of the dirt container and wherein the at least one lip protrudes radially outwardly from the intermediate wall. a first cyclonic separating unit (160,360) comprising a hollow substantially cylindrical dirt container (120,130, 320,330) with a longitudinal central axis (21,321) and comprising an air inlet port (126,326) arranged tangentially to the dirt container so as to cause air to flow in a helical path around the cylindrical dirt container; a second cyclonic separating unit (150,350) comprising a plurality of cyclones (84,284) each with an inlet port (88,288), an axial outlet port (56,256) and a discharge nozzle (87,287); and a substantially cylindrical intermediate wall (82,90,110,282,290,310) arranged within the dirt container, wherein the intermediate wall comprises an air permeable wall arranged as an air flow outlet from the first cyclonic separating unit to the inlet ports (88,288) of the plurality of cyclones (84,284), wherein the second cyclonic separating unit is located within the dirt container, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, and wherein the first and second cyclonic separating units are arranged to deposit material separated from air flow at a longitudinal end (130,330) of the dirt container, wherein the cyclonic separation apparatus comprises at least one protruding lip (104,128,304,328) arranged to impede return of separated material from said longitudinal end of the dirt container and wherein the at least one lip protrudes radially outwardly from the intermediate wall.
Door opener, preferably pneumatically operable door opener, for locking and/or releasing a leaf of a door, said leaf being in the closed position, having a pneumatic connecting device for connecting to a pneumatic supply line and having a door opener housing in which components of the door opener are received, wherein the components of the door opener comprise a door opener latch which is moveably mounted in the door opener housing and a blocking device, and the blocking device has a blocking element (21a, 21b) which cooperates directly or indirectly with the door opener latch for locking or releasing the door opener latch and can be operated by a pneumatic cylinder connected to the pneumatic connecting device, wherein the pneumatic cylinder is fully enclosed by the door opener housing, and the pneumatic connecting device engages through a wall of the door opener housing, wherein the blocking device comprises a door opener armature and a changer cooperating with this armature, wherein the pivot axis of the door opener latch is arranged substantially in parallel to the longitudinal axis of the pneumatic cylinder, and the pivot axis of the changer runs in parallel to the pivot axis of the door opener armature (21a, 21b), and the pneumatic cylinder is held running in parallel to the changer in the door opener housing, characterised in that the pneumatic connecting device has a spacer which holds an inner air connection and an outer air connection, the pneumatic cylinder is connected to an inner air connection of the pneumatic connecting device via a pneumatic hose, and a compressed air line is connected to the outer air connection during the installation of the door opener, the pneumatic cylinder being able to be supplied with compressed air via said compressed air line.
A brake disc for disc brake, comprising a braking band provided with two opposite braking surfaces (2a, 2b), each of which defines at least partially one of the two main faces of the disc, the braking band being made of gray cast iron or steel; characterized in that said disc is provided with a base layer which covers at least one of the two braking surfaces (2a, 2b) of the braking band, said base layer being composed of steel totally free from nickel and of one or more carbides included in the nickel-free steel, and in that an intermediate layer composed of nickel-free steel is interposed between the base layer and at least one of the two braking surfaces (2a, 2b) of the braking band. characterized in that said disc is provided with a base layer which covers at least one of the two braking surfaces (2a, 2b) of the braking band, said base layer being composed of steel totally free from nickel and of one or more carbides included in the nickel-free steel, and in that an intermediate layer composed of nickel-free steel is interposed between the base layer and at least one of the two braking surfaces (2a, 2b) of the braking band.
System for producing multi-packs from at least two packagings filled with a fluid level of liquid filling material, which comprises a treatment segment along which the packagings are transported and packed to form multi-packs, wherein a multi-pack contains at least two packagings standing next to one another, comprising at least one first function unit, which is configured as a packaging unit for the application of a shrink film onto the packagings, wherein the system comprises at least one second function unit which is arranged after the first function unit in a transport direction and is configured as a shrink unit for shrinking the shrink film applied in the packaging unit by heating, characterised in that the system comprises, in the transport direction, before the second function unit, at least one spraying device and/or cooling device for applying a spraying medium and/or cooling medium to the packagings at least in their upper region.
Method for cooling a superconducting machine, in particular using the thermosiphon effect, comprising the steps: A) that a temperature (T 1, T 2, or T 3) is increased in a first condenser chamber (18, 18', or 18"), which is thermally connected to a first cold head (16, 16', or 16"), wherein cooling fluid is evaporated and/or gas in the condenser chamber (18, 18', or 18") expands and/or the pressure (p 1, p 2 or p 3) in the condenser chamber (18, 18', or 18") is increased, and liquid cooling fluid k is moved in a first connecting pipe (20, 20', or 20") between the first condenser chamber (18, 18', or 18") and an evaporator chamber into the evaporator chamber by the temperature increase, evaporation and/or gas expansion, and B) that a temperature (T 1, T 2, or T 3) is lowered simultaneously in at least one second condenser chamber (18, 18', or 18"), which is thermally connected to a second cold head (16, 16', or 16"), in particular a lower temperature (T 1, T 2, or T 3) than in the first condenser chamber (18, 18', or 18"), as a result of which gaseous cooling fluid k' is moved from the evaporator chamber into the second condenser chamber (18, 18', or 18"), in particular via a second connecting pipe (20, 20', or 20"), as a result of the temperature increase in the first condenser chamber (18, 18', or 18") and/or by the lowering of the temperature in the second condenser chamber (18, 18', or 18"). A) that a temperature (T 1, T 2, or T 3) is increased in a first condenser chamber (18, 18', or 18"), which is thermally connected to a first cold head (16, 16', or 16"), wherein cooling fluid is evaporated and/or gas in the condenser chamber (18, 18', or 18") expands and/or the pressure (p 1, p 2 or p 3) in the condenser chamber (18, 18', or 18") is increased, and liquid cooling fluid k is moved in a first connecting pipe (20, 20', or 20") between the first condenser chamber (18, 18', or 18") and an evaporator chamber into the evaporator chamber by the temperature increase, evaporation and/or gas expansion, and B) that a temperature (T 1, T 2, or T 3) is lowered simultaneously in at least one second condenser chamber (18, 18', or 18"), which is thermally connected to a second cold head (16, 16', or 16"), in particular a lower temperature (T 1, T 2, or T 3) than in the first condenser chamber (18, 18', or 18"), as a result of which gaseous cooling fluid k' is moved from the evaporator chamber into the second condenser chamber (18, 18', or 18"), in particular via a second connecting pipe (20, 20', or 20"), as a result of the temperature increase in the first condenser chamber (18, 18', or 18") and/or by the lowering of the temperature in the second condenser chamber (18, 18', or 18").
A target evolved NodeB, eNB (115B; 404) for, following one or more cell reconfigurations, replacing an inactive cell with an active cell in response to a handover request message, the target eNB comprising: a memory storing instructions; and one or more processors in communication with the memory, the one or more processors operable to execute the instructions to cause the one or more processors to: store a mapping between the inactive cell and the active cell that reuses a first physical cell identity associated with the inactive cell; receive a handover request message from one out of a source eNB (115A; 402) and a target Mobility Management Entity, MME, the handover request message including a cell identifier associated with the inactive cell; based on the mapping between the inactive cell and the active cell, identify the active cell that reuses the first physical cell identity; and in response to the handover request message from the source eNB (115A; 402) or target MME, which handover request message is a request for handover execution to the inactive cell, transmit a handover request acknowledgment message to the source eNB (115A; 402) or target MME, respectively, that acknowledges completed handover preparation toward the active cell. a memory storing instructions; and one or more processors in communication with the memory, the one or more processors operable to execute the instructions to cause the one or more processors to: store a mapping between the inactive cell and the active cell that reuses a first physical cell identity associated with the inactive cell; receive a handover request message from one out of a source eNB (115A; 402) and a target Mobility Management Entity, MME, the handover request message including a cell identifier associated with the inactive cell; based on the mapping between the inactive cell and the active cell, identify the active cell that reuses the first physical cell identity; and in response to the handover request message from the source eNB (115A; 402) or target MME, which handover request message is a request for handover execution to the inactive cell, transmit a handover request acknowledgment message to the source eNB (115A; 402) or target MME, respectively, that acknowledges completed handover preparation toward the active cell. store a mapping between the inactive cell and the active cell that reuses a first physical cell identity associated with the inactive cell; receive a handover request message from one out of a source eNB (115A; 402) and a target Mobility Management Entity, MME, the handover request message including a cell identifier associated with the inactive cell; based on the mapping between the inactive cell and the active cell, identify the active cell that reuses the first physical cell identity; and in response to the handover request message from the source eNB (115A; 402) or target MME, which handover request message is a request for handover execution to the inactive cell, transmit a handover request acknowledgment message to the source eNB (115A; 402) or target MME, respectively, that acknowledges completed handover preparation toward the active cell.
A vehicle including a luggage storage space (129, 131), said storage space including a luggage board; a first trim element that is arranged to cover at least a portion of a first lateral side of the vehicle; and a second trim element that is arranged to cover at least a portion of a second lateral side of the vehicle, said luggage board including a first load bearing surface and a first edge, the first load bearing surface being arranged to provide an area on which articles of luggage can be placed; said first trim element comprising a first protruding formation arranged to engage with the first edge of the luggage board when the luggage board is located in the vehicle in its regular position; and said second trim element comprising a second protruding formation arranged to engage with a second edge of the luggage board when the luggage board is located in the vehicle in its regular position; wherein the luggage board and the first and second trim elements (117, 119) are arranged such that there is an interference fit between the luggage board and the first protruding formation, and between the luggage board and the second protruding formation, when the luggage board is located in the vehicle in its regular position; characterized in that: at least one of the first and second protruding formations (121, 125) is deformable, and preferably resiliently deformable; and in that at least one of the first and second protruding formations (121, 125) includes a skin (TS 117), with a cavity (C TE) located behind the skin. at least one of the first and second protruding formations (121, 125) is deformable, and preferably resiliently deformable; and in that at least one of the first and second protruding formations (121, 125) includes a skin (TS 117), with a cavity (C TE) located behind the skin.
Device for protecting a seal created between two surfaces (2, 3) forming an angle (α) between them, this seal consisting of an adhesive material previously applied in the angle (α) formed by the two surfaces, the protecting device consisting of a sealed cover acting together with the seal, which sealed cover is created from a semi flexible longitudinal profiled strip of generally triangular cross section, one, upper side of which has a smooth visible face of width such that it connects the two angle surfaces (2 and 3) after covering the non-cured seal, its two other, lateral sides (4b, 4c) forming an apex angle (α1) that is able to penetrate into said non-cured seal and comprising anchoring zones consisting of longitudinal grooves (5, 6) for permanent anchoring in the seal, after curing, the apex formed by the two lateral sides (4b, 4c) of the triangular profiled strip constituting the seal cover being longitudinally truncated so as to form a chamfer, thus constituting a reservation for the sealing material forming the seal, characterized in that the surface of the cross section is solid.
Active ingredient combinations of one or more cosmetically or dermatologically relevant fragrances selected from the group comprising coumarin (CAS No.: 91-64-5), iraldeine alpha iff (CAS No.: 127-41-3), farnesol (CAS No.: 4602-84-0), Lilial (CAS No.: 80-54-6), orange oil bitter (CAS No.: 8028-48-6), florosa (CAS No.: 63500-71-0), hexyl salicylate (CAS No.: 6259-76-3), phenylethyl alcohol (CAS No.: 60-12-8), benzyl benzoate M (CAS No.: 120-51-4), hydroxycitronellal (CAS No.: 107-75-5), Macrolide Supra (CAS No.: 106-02-5), Phenoxanol (CAS No.: 55066-48-3), Geraniol Supra (CAS No.: 106-24-1), dihydromyrcenol (CAS No.: 18479-58-8), cinnamaldehyde (CAS No.: 104-55-2), Lyral (CAS No.: 31906-04-4), isoeugenol (CAS No.: 97-54-1), anise alcohol (CAS No.: 105-13-5), terpineol pure (CAS No.: 98-55-5), bergamot oil (CAS No.: 8007-75-8), hedione (CAS No.: 24851-98-7), vanillin (CAS No.: 121-33-5), thymol (CAS No.: 89-83-8), linalyl acetate (CAS No.: 115-95-7), linalool aroma (CAS No.: 78-70-6), hexenol cis-3 (CAS No.: 928-96-1), tetrahydromuguol (CAS No.: 78-69-3), limonene D pure (CAS No.: 5989-27-5), benzyl salicylate (CAS No.: 118-58-1), benzyl cinnamate (CAS No.: 103-41-3), Iso E Super (CAS No.: 54464-57-2), citronellol 950 (CAS No.: 106-22-9), benzyl alcohol DD (CAS No.: 100-51-6), ethyl vanillin (CAS No.: 121-32-4), eugenol (CAS No.: 97-53-0), methyl heptyne carbonate (CAS No.: 111-12-6), citral 95 (CAS No.: 5392-40-5), alpha-hexylcinnamaldehyde (CAS No.: 101-86-0), benzyl acetate (CAS No.: 140-11-4), ethyl linalool (CAS No.: 10339-55-6), iraldeine gamma coeur 262654 (CAS No.: 79-68-5), amylcinnamaldehyde (CAS No.: 122-40-7), alpha-isomethylionone (CAS No.: 127-51-5), methyl benzoate (CAS No.: 93-58-3), alpha-methylionone (CAS No.: 7779-30-8), 2-tert-pentylcyclohexyl acetate (CAS NO.: 67874-72-0), 7-acetyl-1,1,3,4,4,6-hexamethyltetralin (CAS No.: 1506-02-1), adipic acid diester, amyl salicylate (CAS No.: 2050-08-0), amylcinnamyl alcohol (CAS No.: 101-85-9), amyl C butylphenylmethylpropionalcinnamal, benzoin (CAS No.: 119-53-9, 5928-66-5, 5928-67-6), bitter orange oil (CAS No.: 8008-57-9), sweet orange oil (CAS No.: 8028-48-6), cardamom oil (CAS No.: 800-66-6), cedrol (CAS No.: 77-53-2), cinnamyl alcohol (CAS No.: 104-51-1), citronellyl methylcrotonate (CAS No.: 20770-40-5), lemon oil (CAS No.: 84929-31-7), diethyl succinate (CAS No.: 123-25-1), Evernia furfuracea extract (CAS No.: 90028-67-4), Evernia prunastri extract (CAS No.: 90028-68-5), guaiac wood oil (CAS No.: 9000-29-7), hexyl cinnamal (CAS No.: 101-86-0), lavender oil (CAS No.: 800-28-0), limonene oil (CAS No.: 8008-26-2), mandarin oil (CAS No.: 8016-85-1), menthyl PCA (CAS No.: 64519-44-4/ 68127-22-0), methylheptenone (CAS No.: 402-02-9), nutmeg oil (CAS No.: 8008-45-5), rosemary oil, tonka bean oil (CAS No.: 8046-22-8) and triethyl citrate (CAS No.: 77-93-0) and an alkylamidothiazole having the following structure:
A sheet packaging material for producing a sealed package of a pourable food product, the packaging material comprising: at least one base layer for imparting stiffness to the sheet packaging material; at least one lamination layer (234, 238, 242, 246) applied to and covering the base layer; and a partially laminated opening zone (204, 234) comprising: a laminated cutting area (220, 224) having at least three longitudinal portions extending from a central portion towards the periphery of the opening zone (204, 234); the sheet packaging material being characterized in that the partially laminated opening zone (204,234) comprisesat least three removable portions adjacent to the laminated cutting area (220, 224), each removable portion being located between two longitudinal portions and having a folding zone adjacent to the periphery of the opening zone (204, 234); wherein in use the removable portions are partly detached from the packaging material by penetration of the laminated cutting area (220, 224) prior to being folded at the folding zone to form an opening in the packaging material for pouring a food product from the package. at least one base layer for imparting stiffness to the sheet packaging material; at least one lamination layer (234, 238, 242, 246) applied to and covering the base layer; and a partially laminated opening zone (204, 234) comprising: a laminated cutting area (220, 224) having at least three longitudinal portions extending from a central portion towards the periphery of the opening zone (204, 234); a laminated cutting area (220, 224) having at least three longitudinal portions extending from a central portion towards the periphery of the opening zone (204, 234); the sheet packaging material being characterized in that the partially laminated opening zone (204,234) comprisesat least three removable portions adjacent to the laminated cutting area (220, 224), each removable portion being located between two longitudinal portions and having a folding zone adjacent to the periphery of the opening zone (204, 234); wherein in use the removable portions are partly detached from the packaging material by penetration of the laminated cutting area (220, 224) prior to being folded at the folding zone to form an opening in the packaging material for pouring a food product from the package.
A flexible impeller for use in a flexible impeller pump comprising a body (34,35) and a plurality of vanes extending outwardly from the body (34,35), wherein each vane comprises a root and a tip and at least two sealing elements (52,54), wherein the first seal element is provided at the tip of the vane and a second seal element is provided between the tip and the root of the vane, characterised in that the second seal element comprises a protrusion at least from the leading side of the vane.
Method for control of a flying wing, the flying wing being arranged to be controlled to move along a predetermined trajectory by means of a fluid stream passing the flying wing; the flying wing comprising a wing and at least one control surface for controlling the movement of the flying wing along the predetermined trajectory, the flying wing being positioned in a reference system where the x-axis is directed horizontally along a level L above which the flying wing moves, the y-axis is perpendicular to the x-axis in a vertical direction and the z-axis is perpendicular to the x-axis along the level L in a direction along the principal direction of the fluid stream, the flying wing being arranged to be attached to said level L by means of a tether attached to a structure positioned at said level L, characterized in that the control of the flying wing is arranged to be performed using a horizontal position of the flying wing, a vertical position of the flying wing, a heading of the flying wing and a yaw rate of the flying wing, where the horizontal position, the vertical position, the heading and the yaw rate can be measured and modelled, wherein the method uses as measured input values the heading, a pressure to obtain the measured vertical position, the yaw rate and the speed of the flying wing along the predetermined trajectory, wherein the method comprises: - controlling the movement of the flying wing along the predetermined trajectory during a sensor feedback phase using measured values of heading, vertical position and yaw rate and modelled values of horizontal position, - switching between said sensor feedback phase and a model feedback phase after a predetermined distance along the predetermined trajectory has been traversed and when a deviation between a measured value of the vertical position and a modelled value of the vertical position is below a threshold value, - controlling the movement of the flying wing along the predetermined trajectory during said model feedback phase using modelled values of heading, vertical position, horizontal position and yaw rate. - controlling the movement of the flying wing along the predetermined trajectory during a sensor feedback phase using measured values of heading, vertical position and yaw rate and modelled values of horizontal position, - switching between said sensor feedback phase and a model feedback phase after a predetermined distance along the predetermined trajectory has been traversed and when a deviation between a measured value of the vertical position and a modelled value of the vertical position is below a threshold value, - controlling the movement of the flying wing along the predetermined trajectory during said model feedback phase using modelled values of heading, vertical position, horizontal position and yaw rate.