mhurhangee/ep-ind-claims huggingface dataset:
An air conditioner comprising: an air conditioning indoor unit (1030, 1030a) including a casing, a heat exchanger, an expansion valve, and a fan, the casing accommodating the heat exchanger, the expansion valve, and the fan, and being configured to be installed in an air conditioning target space, the air conditioning indoor unit (1030, 1030a) being a wall-mounted type, a floor type or a ceiling suspended type; an air conditioning heat source unit connected to the air conditioning indoor unit (1030, 1030a) via a liquid refrigerant pipe and a gas refrigerant pipe; and a shutoff valve device (1060, 1060a, 1060b) having a shutoff valve configured to be disposed in an attic space above a ceiling of the air conditioning target space, the shutoff valve including a first shutoff valve (1052, 1034) disposed in the liquid refrigerant pipe and a second shutoff valve disposed in the gas refrigerant pipe, the shutoff valve device (1060, 1060a, 1060b) further having a shutoff valve casing accommodating the shutoff valve, one or two opening through which the liquid refrigerant pipe connected to the first shutoff valve (1052, 1034) and/or the gas refrigerant pipe connected to the second shutoff valve extend is formed in the shutoff valve casing, and the shutoff valve device (1060, 1060a, 1060b) further includes a heat insulating material configured to close a gap between the opening and the liquid refrigerant pipe and a gap between the opening and the gas refrigerant pipe. an air conditioning indoor unit (1030, 1030a) including a casing, a heat exchanger, an expansion valve, and a fan, the casing accommodating the heat exchanger, the expansion valve, and the fan, and being configured to be installed in an air conditioning target space, the air conditioning indoor unit (1030, 1030a) being a wall-mounted type, a floor type or a ceiling suspended type; an air conditioning heat source unit connected to the air conditioning indoor unit (1030, 1030a) via a liquid refrigerant pipe and a gas refrigerant pipe; and a shutoff valve device (1060, 1060a, 1060b) having a shutoff valve configured to be disposed in an attic space above a ceiling of the air conditioning target space, the shutoff valve including a first shutoff valve (1052, 1034) disposed in the liquid refrigerant pipe and a second shutoff valve disposed in the gas refrigerant pipe, the shutoff valve device (1060, 1060a, 1060b) further having a shutoff valve casing accommodating the shutoff valve, one or two opening through which the liquid refrigerant pipe connected to the first shutoff valve (1052, 1034) and/or the gas refrigerant pipe connected to the second shutoff valve extend is formed in the shutoff valve casing, and the shutoff valve device (1060, 1060a, 1060b) further includes a heat insulating material configured to close a gap between the opening and the liquid refrigerant pipe and a gap between the opening and the gas refrigerant pipe.
A method for producing a halogenated isoolefin-based polymer, the method comprising: irradiating an alkylstyrene-containing isoolefin-based polymer with light in presence of a halogen molecule, the alkylstyrene-containing isoolefin-based polymer having been polymerized by a living cationic polymerization involving use of titanium chloride as a Lewis acid catalyst, the alkylstyrene-containing isoolefin-based polymer containing titanium oxide derived from titanium chloride. irradiating an alkylstyrene-containing isoolefin-based polymer with light in presence of a halogen molecule, the alkylstyrene-containing isoolefin-based polymer having been polymerized by a living cationic polymerization involving use of titanium chloride as a Lewis acid catalyst, the alkylstyrene-containing isoolefin-based polymer containing titanium oxide derived from titanium chloride.
Biofuel formulation comprising - biodiesel-derived crude glycerol, wherein said crude glycerol is present between 10% and 90% w/w in respect of the whole composition; - glycerol formal which is present between 10% and 90% w/w in respect of the whole composition; - at least one fatty acid glycerol formal ester in an amount between 0% and 80% w/w in respect of the whole composition; - at least one fatty acid methyl ester in an amount between 0% and 80% w/w in respect of the whole composition; wherein said formulation does not contain formaldehyde; and wherein said crude glycerol is a mixture of glycerol, ash, water and organic residue. - biodiesel-derived crude glycerol, wherein said crude glycerol is present between 10% and 90% w/w in respect of the whole composition; - glycerol formal which is present between 10% and 90% w/w in respect of the whole composition; - at least one fatty acid glycerol formal ester in an amount between 0% and 80% w/w in respect of the whole composition; - at least one fatty acid methyl ester in an amount between 0% and 80% w/w in respect of the whole composition;
An electronic device (120, 200), comprising: a housing (210, 502) including a front surface, a rear surface, a west edge surface, and a south edge surface; a flexible display, having a front surface, a west region defined by a first fold along a y-axis, and a south region defined by a second fold along an x-axis, the flexible display having a curved cutout creating a non-connected area at a corner area between the west region and the south region when the flexible display is folded along the first fold and the second fold; a controller coupled to the housing and flexible display, the controller configured to control operations of the electronic device; and the front surface of the flexible display extending along the front surface of the housing, the west region of the flexible display extending along the west edge surface of the housing, and the south region of the flexible display extending along the south edge surface of the housing, such that the flexible display includes at least three display surfaces. a housing (210, 502) including a front surface, a rear surface, a west edge surface, and a south edge surface; a flexible display, having a front surface, a west region defined by a first fold along a y-axis, and a south region defined by a second fold along an x-axis, the flexible display having a curved cutout creating a non-connected area at a corner area between the west region and the south region when the flexible display is folded along the first fold and the second fold; a controller coupled to the housing and flexible display, the controller configured to control operations of the electronic device; and the front surface of the flexible display extending along the front surface of the housing, the west region of the flexible display extending along the west edge surface of the housing, and the south region of the flexible display extending along the south edge surface of the housing, such that the flexible display includes at least three display surfaces.
A transmission assembly structure comprising: an engine-side joining surface, which is formed on a flywheel housing of an internal combustion engine; a transmission-side joining surface, which is formed on a transmission housing of a transmission and is joined to the engine-side joining surface; an engine component, which is provided on an outside of the engine-side joining surface in a radial direction of a flywheel, the flywheel being coaxially attached to a crank shaft, wherein the engine component protrudes toward a transmission side with respect to the engine-side joining surface; a guide member, which is provided on the engine-side joining surface of the flywheel housing and also in a vicinity of the engine component and which protrudes toward the transmission side further than the engine component with respect to the engine-side joining surface; and a guide hole, which is provided on the transmission-side joining surface of the transmission housing and into which the guide member is inserted, wherein the guide member is configured to restrict a movement direction of the transmission housing such that the transmission housing is movable to the flywheel housing during assembly of the structure. an engine-side joining surface, which is formed on a flywheel housing of an internal combustion engine; a transmission-side joining surface, which is formed on a transmission housing of a transmission and is joined to the engine-side joining surface; an engine component, which is provided on an outside of the engine-side joining surface in a radial direction of a flywheel, the flywheel being coaxially attached to a crank shaft, wherein the engine component protrudes toward a transmission side with respect to the engine-side joining surface; a guide member, which is provided on the engine-side joining surface of the flywheel housing and also in a vicinity of the engine component and which protrudes toward the transmission side further than the engine component with respect to the engine-side joining surface; and a guide hole, which is provided on the transmission-side joining surface of the transmission housing and into which the guide member is inserted, wherein the guide member is configured to restrict a movement direction of the transmission housing such that the transmission housing is movable to the flywheel housing during assembly of the structure.
A method for placing and sealing a tubular element in a ground under a water head situated behind a retaining screen, comprising: providing a sealing device, and a drilling device comprising a drill pipe that has a distal end bearing a cutting tool detachable from the drill pipe; securing said sealing device to the retaining screen; inserting the drilling device into the sealing device secured to the retaining screen; drilling a borehole in the ground using the drilling device by vibrating the drill pipe, the drill pipe being brought to a determined depth; inserting a tubular element in the drill pipe after the drill pipe has reached the determined depth; detaching the cutting tool from the drill pipe and raising the drill pipe while keeping the tubular element in the borehole; and injecting a sealing grout into the borehole in order to seal the tubular element in the ground. providing a sealing device, and a drilling device comprising a drill pipe that has a distal end bearing a cutting tool detachable from the drill pipe; securing said sealing device to the retaining screen; inserting the drilling device into the sealing device secured to the retaining screen; drilling a borehole in the ground using the drilling device by vibrating the drill pipe, the drill pipe being brought to a determined depth; inserting a tubular element in the drill pipe after the drill pipe has reached the determined depth; detaching the cutting tool from the drill pipe and raising the drill pipe while keeping the tubular element in the borehole; and injecting a sealing grout into the borehole in order to seal the tubular element in the ground.
An arc welding control method of performing arc welding by periodically repeating a first heat input period (Th) having a first heat input amount and a second heat input period (Tc) having a second heat input amount to a welding subject using a welding wire that is a consumable electrode, wherein each of the first heat input period (Th) and the second heat input period (Tc) includes a short-circuit period (Ts) and an arc period (Ta), and the release of short-circuit is detected during the short-circuit period (Ts) in the second heat input period (Tc), characterized in that, when the release of the short-circuit is detected during the short-circuit period (Ts) in the second heat input period (Tc), a welding current during the arc period (Ta) in the second heat input period (Tc) is set to be less than a current immediately before the release of the short-circuit, and the welding current during the arc period (Ta) in the second heat input period (Tc) is set to be less than a welding current during the arc period (Ta) in the first heat input period (Th), or a total sum of energy indicated by an integral of the welding current over time during the arc period (Ta) in the second heat input period (Tc) is set to be less than a total sum of energy indicated by an integral of the welding current over time during the arc period (Ta) in the first heat input period (Th).
A method for setting a basic display screen in a mobile terminal, the method comprising: displaying a status indicator stored in the mobile terminal; receiving a first input selecting the status indicator; displaying a plurality of indicator images stored in relation to the selected status indicator; receiving a second input selecting one of the displayed plurality of indicator images; setting the selected image as a display image of the selected status indicator; setting a location of the selected image on the basic display screen; and displaying the basic display screen according to the set location of the selected image. displaying a status indicator stored in the mobile terminal; receiving a first input selecting the status indicator; displaying a plurality of indicator images stored in relation to the selected status indicator; receiving a second input selecting one of the displayed plurality of indicator images; setting the selected image as a display image of the selected status indicator; setting a location of the selected image on the basic display screen; and displaying the basic display screen according to the set location of the selected image.
An intercalary prosthesis for spanning portions of a long bone, comprising: a first intramedullary component (30a, 130a) having a first stem (32, 132) and a first connector (34, 134) disposed at one end of the first stem (32, 132), the first stem (32, 132) being configured to be received within an intramedullary canal of a long bone; a second intramedullary component having a second stem and a second connector disposed at one end of the second stem, the second stem being configured to be received within an intramedullary canal of the long bone; and a connector component (20, 120) having a body (21, 121), the body (21, 121) having opposing ends each having a connector (22, 122) configured to respectively connect to the connectors (34, 134) of the first and second intramedullary components (30a, 130a, 30b), the body (21, 121) also having an outer shell and defining a through-opening extending through the connector component (20, 120) and through each of the connectors (22, 122), the prosthesis being characterized in that the body (21, 121) of the connector component (20, 120) has an inner lattice structure disposed within and connected to the outer shell and in that the lattice structure is in communication with the through-opening. a first intramedullary component (30a, 130a) having a first stem (32, 132) and a first connector (34, 134) disposed at one end of the first stem (32, 132), the first stem (32, 132) being configured to be received within an intramedullary canal of a long bone; a second intramedullary component having a second stem and a second connector disposed at one end of the second stem, the second stem being configured to be received within an intramedullary canal of the long bone; and a connector component (20, 120) having a body (21, 121), the body (21, 121) having opposing ends each having a connector (22, 122) configured to respectively connect to the connectors (34, 134) of the first and second intramedullary components (30a, 130a, 30b), the body (21, 121) also having an outer shell and defining a through-opening extending through the connector component (20, 120) and through each of the connectors (22, 122), the prosthesis being characterized in that the body (21, 121) of the connector component (20, 120) has an inner lattice structure disposed within and connected to the outer shell and in that the lattice structure is in communication with the through-opening.
A valve device, comprising a drive component and a valve seat component, wherein the valve seat component has an inlet and an outlet, and the inlet is in communication with a valve chamber; the valve device further comprises a sliding block supported by the valve seat component, and a bottom surface of the sliding block is in contact with a top surface of the valve seat component; the sliding block has a flow channel portion and a blocking portion, the flow channel portion and the blocking portion are circumferentially sleeved on a rotation center of the sliding block, a flow area of the flow channel portion varies along a circumferential direction, and the flow channel portion is in communication with the valve chamber; and a drive component is configured to drive the sliding block to rotate with respect to the valve seat component, to cause the flow channel portion to communicate with the outlet or to cause the blocking portion to close the outlet, characterised in that, the valve device further comprises a filter component, which is configured to filter a refrigerant flowing into the flow channel portion; and the sliding block is provided with a chamber at a top portion of the sliding block, the filter component is embedded in the chamber and has a predetermined distance from a bottom wall of the chamber, and the flow channel portion is in communication with a receiving chamber formed between the filter component and the chamber. the valve device further comprises a sliding block supported by the valve seat component, and a bottom surface of the sliding block is in contact with a top surface of the valve seat component; the sliding block has a flow channel portion and a blocking portion, the flow channel portion and the blocking portion are circumferentially sleeved on a rotation center of the sliding block, a flow area of the flow channel portion varies along a circumferential direction, and the flow channel portion is in communication with the valve chamber; and a drive component is configured to drive the sliding block to rotate with respect to the valve seat component, to cause the flow channel portion to communicate with the outlet or to cause the blocking portion to close the outlet, characterised in that, the valve device further comprises a filter component, which is configured to filter a refrigerant flowing into the flow channel portion; and the sliding block is provided with a chamber at a top portion of the sliding block, the filter component is embedded in the chamber and has a predetermined distance from a bottom wall of the chamber, and the flow channel portion is in communication with a receiving chamber formed between the filter component and the chamber.
A polygonal heat-insulating glass panel with straight edges and a flat surface, in which the two parallel flat glass panes enclosing the inner space of the glass panel are connected to each other, at least on one side, by means of a transparent, hermetically sealed spacer, forming a closed frame with the other sides, with the following features: - the transparent spacer is composed of an adhesive mould incorporating a transparent adhesive body and an adhesive flange applied between an outer edge sealing glass strip (4.1) and an inner edge sealing glass strip (4.2), where the width of the outer edge sealing glass strip (4.1) matches that of the glass panel, while the width of the inner edge sealing glass strip (4.2) closing the inner space of the glass panel matches that of the inner space of the glass panel; - the edges of the flat glass panes are chamfered to match the adhesive flange; - at the edges of the flat glass panes, the sealing lip formed by chamfering directly contacts the sealing surface 13 of the outer edge sealing glass strip (4.1) of the transparent spacer pressed between the flat glass panes. - the transparent spacer is composed of an adhesive mould incorporating a transparent adhesive body and an adhesive flange applied between an outer edge sealing glass strip (4.1) and an inner edge sealing glass strip (4.2), where the width of the outer edge sealing glass strip (4.1) matches that of the glass panel, while the width of the inner edge sealing glass strip (4.2) closing the inner space of the glass panel matches that of the inner space of the glass panel; - the edges of the flat glass panes are chamfered to match the adhesive flange; - at the edges of the flat glass panes, the sealing lip formed by chamfering directly contacts the sealing surface 13 of the outer edge sealing glass strip (4.1) of the transparent spacer pressed between the flat glass panes.
Use of a lubricant composition for reducing low speed pre-ignition events in a spark-ignited, turbocharged, direct injection internal combustion engine, wherein the engine is operated under a load with a brake mean effective pressure of greater than or equal to 10 bars and at speeds less than or equal to 3,000 rpm, wherein the lubricant composition comprises: a base oil of lubricating viscosity; a boron-containing ashless dispersant, wherein the dispersant comprises a polyisobutylene succinimide compound; and at least one other additive selected from an ashless antioxidant, a metal containing overbased detergent, a phosphorus-containing anti-wear additive, a friction modifier, and a polymeric viscosity modifier. a base oil of lubricating viscosity; a boron-containing ashless dispersant, wherein the dispersant comprises a polyisobutylene succinimide compound; and at least one other additive selected from an ashless antioxidant, a metal containing overbased detergent, a phosphorus-containing anti-wear additive, a friction modifier, and a polymeric viscosity modifier.
A method of communicating discovery information, the method comprising: storing information defining a peer discovery transmission structure, said structure indicting a plurality of ordered transmission units available for transmitting peer discovery information, said stored information including information indicating transmission units to be used for low rate discovery transmissions and additional transmission units to be used for high rate discovery transmissions; transmitting a first portion of a first set of peer discovery information using a transmission unit corresponding to said low rate discovery transmissions; and transmitting a previously transmitted portion of a second set of peer discovery information using a transmission unit corresponding to said high rate discovery transmissions; wherein said transmitting a previously transmitted portion follows transmission of said first portion, and wherein said transmitting a previously transmitted portion precedes transmission of another portion of peer discovery information using another transmission unit corresponding to said low rate discovery transmissions. storing information defining a peer discovery transmission structure, said structure indicting a plurality of ordered transmission units available for transmitting peer discovery information, said stored information including information indicating transmission units to be used for low rate discovery transmissions and additional transmission units to be used for high rate discovery transmissions; transmitting a first portion of a first set of peer discovery information using a transmission unit corresponding to said low rate discovery transmissions; and transmitting a previously transmitted portion of a second set of peer discovery information using a transmission unit corresponding to said high rate discovery transmissions; wherein said transmitting a previously transmitted portion follows transmission of said first portion, and wherein said transmitting a previously transmitted portion precedes transmission of another portion of peer discovery information using another transmission unit corresponding to said low rate discovery transmissions.