mhurhangee/ep-ind-claims huggingface dataset:
A heat source unit in which a plurality of air heat exchangers (2A, 2B, 2C and 2D), in which radiating fins having a plate shape, which are corresponding to a predetermined number, are spaced in a plate thickness direction of the radiating fins so as to be arranged, and a plurality of tubes, in which a coolant in a freezing cycle is flowed, are inserted toward the radiating fins in the plate thickness direction of the radiating fins so as to be linked to the radiating fins, are faced and arranged in a right-left direction, at an upper portion of a machine room having a rectangular shape viewed from a plane, in a state where a distance at an upper portion side is expanded in such a way that the air heat exchangers (2A, 2B, 2C and 2D) are formed in a V shape viewed from a short hand side; characterized in that the air heat exchangers (2A, 2B, 2C and 2D) are composed of a first air heat exchanger through a fourth air heat exchanger, which are formed in a L shape, which include long side portions and short side portions in a state where one end portion sides in an extension direction of the tubes are bent; and each of the short side portions is disposed at a short hand side of the machine room having a rectangular shape viewed from a plane, in such a way that an arrangement shape of the first air heat exchanger through the fourth air heat exchanger is formed as a frame shape having a rectangular shape viewed from a plane, in which header portions are provided at end portions of the short side portions in the first air heat exchanger through the fourth air heat exchanger, and hairpin portions are provide at end portions of the long side portions, and the header portions are respectively positioned at central portions in a left-right direction, which are viewed from a short hand side of the machine room, and the hairpin portions are respectively positioned at central portions in a left-right direction, which are viewed from a long hand side of the machine room.
An aluminum alloy wire rod having a composition comprising 0.1 mass% to 1.0 mass% Mg; 0.1 mass% to 1.0 mass% Si; 0.01 mass% to 1.40 mass% Fe; 0.000 mass% to 0.100 mass% Ti; 0.000 mass% to 0.030 mass% B; 0.00 mass% to 1.00 mass% Cu; 0.00 mass% to 0.50 mass% Ag; 0.00 mass% to 0.50 mass% Au; 0.00 mass% to 1.00 mass% Mn; 0.00 mass% to 1.00 mass% Cr; 0.00 mass% to 0.50 mass% Zr; 0.00 mass% to 0.50 mass% Hf; 0.00 mass% to 0.50 mass% V; 0.00 mass% to 0.50 mass% Sc; 0.00 mass% to 0.50 mass% Sn; 0.00 mass% to 0.50 mass% Co; 0.00 mass% to 0.50 mass% Ni; and the balance being Al and inevitable impurities, characterized in that an area fraction of a region in which an angle formed by a longitudinal direction of the aluminum alloy wire rod and a <111> direction of a crystal is within 20° is greater than or equal to 20 % and less than or equal to 65 %.
A method for sharpening cutting knives carried by a cutter drum in a housing of an agricultural vehicle, comprising: initiating a knife sharpening protocol, the knife sharpening protocol comprising the following sequence of steps: rotating the cutter drum while keeping a sharpening door closed so an overpressure is created inside the housing, the sharpening door shielding a sharpening stone from the cutting knives while creating the overpressure; opening a transition door of the housing below the cutter drum to eject crop material through the open transition door; opening the sharpening door to expose the cutting knives to the sharpening stone and closing the transition door; grinding one or more of the cutting knives with the exposed sharpening stone; and closing the sharpening door to shield the sharpening stone from the cutting knives after grinding. rotating the cutter drum while keeping a sharpening door closed so an overpressure is created inside the housing, the sharpening door shielding a sharpening stone from the cutting knives while creating the overpressure; opening a transition door of the housing below the cutter drum to eject crop material through the open transition door; opening the sharpening door to expose the cutting knives to the sharpening stone and closing the transition door; grinding one or more of the cutting knives with the exposed sharpening stone; and closing the sharpening door to shield the sharpening stone from the cutting knives after grinding.
An oral care implement, comprising: a handle having a core comprising post-consumer recycled material and a cover that is free of post-consumer recycled material enveloping the core; and a head comprising at least one cleaning element, the head being connected to the handle, characterized in that the head and the cover of the handle are integrally formed as a unitary part and in that the cover envelopes the core so that no portion of the core is exposed at an outer surface of the oral care implement. a handle having a core comprising post-consumer recycled material and a cover that is free of post-consumer recycled material enveloping the core; and a head comprising at least one cleaning element, the head being connected to the handle, characterized in that the head and the cover of the handle are integrally formed as a unitary part and in that the cover envelopes the core so that no portion of the core is exposed at an outer surface of the oral care implement.
Method for the production of tablets from mixtures of a plurality of substances, in particular urea mixtures, with the following steps: - producing a liquid melt of a first substance, - admixing at least one further substance in solid or liquid form to the melt to yield a mixture, - outputting drops of the mixture onto a steel belt (18; 78) by means of a drop former (16; 70; 90; 100) with a rotating, perforated outer drum, - solidifying of the drops of the mixture on the steel belt to tablets, wherein the at least one further substance in liquid form is admixed to the liquid melt immediately before the drop former or in solid form is admixed to the liquid melt upstream of a heated grinding and mixing unit (46, 54), wherein the mixture within the drop former (16; 70; 90; 100) is agitated up to immediately before its discharge through nozzles and openings of the rotating outer drum by means of an agitator device extending within the drop former, and wherein the mixture is agitated within a feed channel of the drop former, which channel is arranged within the rotating outer drum. - producing a liquid melt of a first substance, - admixing at least one further substance in solid or liquid form to the melt to yield a mixture, - outputting drops of the mixture onto a steel belt (18; 78) by means of a drop former (16; 70; 90; 100) with a rotating, perforated outer drum, - solidifying of the drops of the mixture on the steel belt to tablets, wherein the at least one further substance in liquid form is admixed to the liquid melt immediately before the drop former or in solid form is admixed to the liquid melt upstream of a heated grinding and mixing unit (46, 54), wherein the mixture within the drop former (16; 70; 90; 100) is agitated up to immediately before its discharge through nozzles and openings of the rotating outer drum by means of an agitator device extending within the drop former, and wherein the mixture is agitated within a feed channel of the drop former, which channel is arranged within the rotating outer drum.
Method of user authentication in a network where a mobile terminal can request for a service from a service provider and send identity information of the user of the mobile terminal to the service provider, the mobile terminal having a smart card with equipment specific information and user specific security functions, wherein the mobile terminal sends to the service provider the identity information of the user upon a request for using the service for sending, by the service provider, to an authentication server, receives from the authentication server an authentication challenge including a random number generated by the authentication server, creates a message in response to the challenge by combining equipment specific information stored in the card and the random number, digitally signs the message by means of the user specific security functions, and sends the message to the authentication server.
A semiconductor device comprising: a frame portion on which at least one semiconductor chip is arranged; a plurality of leads (14, 15, 16) electrically connected to the semiconductor chip; and a mold portion formed on the frame portion to surround a part of the frame portion on which the semiconductor chip and the plurality of leads are arranged, wherein the plurality of leads (14, 15, 16) are bent about a centre of a cross section along a length direction thereof, and characterized in that: the plurality of leads (14, 15, 16) are alternately arranged in a line so that bending directions thereof are reversed. a frame portion on which at least one semiconductor chip is arranged; a plurality of leads (14, 15, 16) electrically connected to the semiconductor chip; and a mold portion formed on the frame portion to surround a part of the frame portion on which the semiconductor chip and the plurality of leads are arranged,
A gypsum slurry comprising gypsum, a copolymer (hereinafter referred to as a component) obtained through polymerization of a monomer containing a monomer represented by the following general formula and a monomer represented by the following general formula, a nitrogen-containing compound (hereinafter referred to as a component), and water, in the component, a ratio of a mass of the monomer with respect to a total mass of the monomer and the monomer being 4% by mass or more, the component being one or more kinds of a nitrogen-containing compound selected from ammonia, an alkylamine, an alkanolamine, an alkylalkanolamine, ethylenediamine, diethylenetriamine, triethylenetetramine, tetraethylenepentamine, and a polyethyleneimine, the alkylamine as the component being an alkylamine selected from a primary amine having an alkyl group having 5 or less carbon atoms in total, a secondary amine having alkyl groups having 6 or less carbon atoms in total, and a tertiary amine having alkyl groups having 5 or less carbon atoms in total, the alkanolamine as the component being an alkanolamine having 1 or more and 10 or less carbon atoms and having 1 or more and 3 or less alkanol groups, the alkylalkanolamine as the component being an alkylalkanolamine having 2 or more and 10 or less carbon atoms and having 1 or 2 alkyl groups, a content of the component being 0.005 parts by mass or more and 1.0 part by mass or less per 100 parts by mass of gypsum, a mass ratio of the component and the component, /, being 0.2 or more and 25 or less, and the gypsum slurry having pH of 6.0 or more and 9.0 or less at 20°C: wherein R 1 and R 2 each independently represent a hydrogen atom or a methyl group; m1 represents an integer of 0 or more and 2 or less; AO represents an alkyleneoxy group having 2 or 3 carbon atoms; n represents an average addition molar number of AO, which is a number of 4 or more and 300 or less; and X represents a hydrogen atom or an alkyl group having 1 or more and 3 or less carbon atoms, wherein R 3, R 4 and R 5 each independently represent a hydrogen atom, a methyl group, or (CH 2) m2 COOM 2; M 1 and M 2 each independently represent a hydrogen atom, or an alkali metal; and m2 represents an integer of 0 or more and 2 or less. R 1 and R 2 each independently represent a hydrogen atom or a methyl group; m1 represents an integer of 0 or more and 2 or less; AO represents an alkyleneoxy group having 2 or 3 carbon atoms; n represents an average addition molar number of AO, which is a number of 4 or more and 300 or less; and X represents a hydrogen atom or an alkyl group having 1 or more and 3 or less carbon atoms, R 3, R 4 and R 5 each independently represent a hydrogen atom, a methyl group, or (CH 2) m2 COOM 2; M 1 and M 2 each independently represent a hydrogen atom, or an alkali metal; and m2 represents an integer of 0 or more and 2 or less.
Front jaw of a safety ski binding with a height-adjustable support arrangement for the front part of the sole of a ski boot, wherein the support arrangement has a slide, which is displaceably mounted on a ramp of a base plate that is inclined in relation to the top of the ski in longitudinal ski direction and simultaneously in a vertical direction, and the height position of which on the ramp is adjustable, wherein an arresting point each is envisaged on the top of the ramp in at least two different height positions of the slide, wherein a bolt moveably mounted on the underside of the slide by means of the arresting points can be engaged and disengaged, characterised in that the bolt on the underside of the slide is rotatably mounted and has an arresting part, which can be engaged and disengaged by rotating the bolt with one of the arresting points.
A method (300, 400) for performing service function chaining by a device or system (500, 600), the method comprising the steps of: receiving (302, 402) a packet, wherein the packet comprises a source media access control, MAC, address; storing (304, 404), in a first field of bits of the source MAC address of the packet, a first value indicating a tunnel identifier of the packet, wherein the tunnel identifier indicates a source device associated with the packet; storing (306, 406), in a second field of bits of the source MAC address, a second value indicating a service function chain of the packet; storing (308, 408), in a third field of bits of the source MAC address, an index value indicating a service function of the service function chain of the packet, wherein the service function chain is indicated by the stored second value; storing, in a fourth field of bits of the source MAC address, an action value indicating an action for the packet; and transmitting (310, 412, 414) the packet to the source device indicated by the tunnel identifier, responsive to the packet completing the service function chain. receiving (302, 402) a packet, wherein the packet comprises a source media access control, MAC, address; storing (304, 404), in a first field of bits of the source MAC address of the packet, a first value indicating a tunnel identifier of the packet, wherein the tunnel identifier indicates a source device associated with the packet; storing (306, 406), in a second field of bits of the source MAC address, a second value indicating a service function chain of the packet; storing (308, 408), in a third field of bits of the source MAC address, an index value indicating a service function of the service function chain of the packet, wherein the service function chain is indicated by the stored second value; storing, in a fourth field of bits of the source MAC address, an action value indicating an action for the packet; and transmitting (310, 412, 414) the packet to the source device indicated by the tunnel identifier, responsive to the packet completing the service function chain.
An exhaust system for receiving an exhaust gas, said exhaust system comprising: a first SCR catalyst; a second SCR catalyst positioned downstream of said first SCR catalyst; wherein said first SCR catalyst has a smaller volume than said second SCR catalyst for a fast warm-up of said first SCR catalyst; a first injector provided upstream of said first SCR catalyst; and a second injector provided upstream of said second SCR catalyst, characterised in that said exhaust system further comprising: a gaseous ammonia supply device being fluidly connected to said first injector for supplying gaseous ammonia to said exhaust gas by said first injector; an ammonia-containing reductant reservoir being fluidly connected to said second injector for supplying a fluid ammonia-containing reductant, such as urea, to said exhaust gas by said second injector, said ammonia-containing reductant reservoir being distinct from said gaseous ammonia supply device. a first SCR catalyst; a second SCR catalyst positioned downstream of said first SCR catalyst; wherein said first SCR catalyst has a smaller volume than said second SCR catalyst for a fast warm-up of said first SCR catalyst; a first injector provided upstream of said first SCR catalyst; and a second injector provided upstream of said second SCR catalyst, characterised in that said exhaust system further comprising: a gaseous ammonia supply device being fluidly connected to said first injector for supplying gaseous ammonia to said exhaust gas by said first injector; an ammonia-containing reductant reservoir being fluidly connected to said second injector for supplying a fluid ammonia-containing reductant, such as urea, to said exhaust gas by said second injector, said ammonia-containing reductant reservoir being distinct from said gaseous ammonia supply device. a gaseous ammonia supply device being fluidly connected to said first injector for supplying gaseous ammonia to said exhaust gas by said first injector; an ammonia-containing reductant reservoir being fluidly connected to said second injector for supplying a fluid ammonia-containing reductant, such as urea, to said exhaust gas by said second injector, said ammonia-containing reductant reservoir being distinct from said gaseous ammonia supply device.
Transdermal therapeutic system for the transdermal administration of asenapine comprising an asenapine-containing layer structure, said asenapine-containing layer structure comprising: A) a backing layer; and B) an asenapine-containing layer; wherein the transdermal therapeutic system comprises a silicone acrylic hybrid polymer. A) a backing layer; and B) an asenapine-containing layer;
A pressure swing adsorption process for separating a pressurized supply feed gas containing one or more strongly adsorbable component from at least one less strongly adsorbable product gas component in a six bed adsorbent system to produce a continuous stream of product gas enriched in the less strongly adsorbable component and a stream of offgas that is enriched in the strongly adsorbable components, wherein the duration of lowest pressure equalization down and first blowdown step is less than 15% of the feed time, and the process cycle has eighteen steps including four bed-to-bed equalization stepsin accordance to following cycle chart: Step: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 Bed# 1 A1 A2/ PP1 A3/ PP2 E1 E2 E2 E3 PPG E4/ BD1 BD2 PG E4' E3' E2' E2' E1' PP1 PP2 2 E1' PP1 PP2 A1 A2/ PP1 A3/ PP2 E1 E2 E2 E3 PPG E4/ BD1 BD2 PG E4' E3' E2' E2' 3 E3' E2' E2' E1' PP1 PP2 A1 A2/PP1 A3/PP2 E1 E2 E2 E3 PPG E4/BD1 BD2 PG E4' 4 BD2 PG E4' E3' E2' E2' E1' PP1 PP2 A1 A2/ PP1 A3/ PP2 E1 E2 E2 E3 PPG E4/ BD1 5 E3 PPG E4/ BD1 BD2 PG E4' E3' E2' E2' E1' PP1 PP2 A1 A2/ PP1 A3/ PP2 E1 E2 E2 6 E1 E2 E2 E3 PPG E4/ BD1 BD2 PG E4' E3' E2' E2' E1' PP1 PP2 A1 A2/ PP1 A3/ PP2 wherein: A1 = First Adsorption Step A2/PP1 = Second Adsorption Step/First Product Pressurization A3/PP2 = Third Adsorption Step/Second Product Pressurization E1 = First Equalization Down E2 = Second Equalization Down E3 = Third Equalization Down PPG = Provide Purge Gas E4/BD1 = Fourth Equalization Down/ First Blowdown BD2 = Second Blowdown PG = Purge E4' = Equalization Up (using gas from E4 step) E3' = Equalization Up (using gas from E3 step) E2' = Equalization Up (using gas from E2 step) E1' = Equalization Up (using gas from E1 step) PP1 = First Product Pressurization PP2 = Second Product Pressurization. A1 = First Adsorption Step A2/PP1 = Second Adsorption Step/First Product Pressurization A3/PP2 = Third Adsorption Step/Second Product Pressurization E1 = First Equalization Down E2 = Second Equalization Down E3 = Third Equalization Down PPG = Provide Purge Gas E4/BD1 = Fourth Equalization Down/ First Blowdown BD2 = Second Blowdown PG = Purge E4' = Equalization Up (using gas from E4 step) E3' = Equalization Up (using gas from E3 step) E2' = Equalization Up (using gas from E2 step) E1' = Equalization Up (using gas from E1 step) PP1 = First Product Pressurization PP2 = Second Product Pressurization.
An electrophotographic photoconductor comprising: a conductive substrate; and at least a photoconductive layer (2,3,4,6) on the conductive substrate, wherein an uppermost surface layer of the photoconductive layer (2,3,4,6) comprises a three-dimensionally crosslinked film formed through polymerization among compounds each containing a charge transporting compound and three or more [(tetrahydro-2H-pyran-2-yl)oxy]methyl groups where the charge transporting compound has one or more aromatic rings and the [(tetrahydro-2H-pyran-2-yl)oxy]methyl groups are bound to the aromatic rings of the charge transporting compound, wherein the polymerization starts after some of the [(tetrahydro-2H-pyran-2-yl)oxylmethyl groups have been partially cleaved and eliminated, and wherein the three-dimensionally crosslinked film has an ionization potential of 5.4 or higher, wherein the ionization potential is measured with an apparatus for photoelectron spectroscopy in air and calculated through plotting based on 1/3 power of photoelectron yield, which involves plotting the 1/3 power of the number of photoelectrons against incident light energy at a light irradiation dose of 50nW to obtain a spectrum, and calculating the ionization potential by extrapolating a straight line segment in the rising of the spectrum. a conductive substrate; and at least a photoconductive layer (2,3,4,6) on the conductive substrate, wherein an uppermost surface layer of the photoconductive layer (2,3,4,6) comprises a three-dimensionally crosslinked film formed through polymerization among compounds each containing a charge transporting compound and three or more [(tetrahydro-2H-pyran-2-yl)oxy]methyl groups where the charge transporting compound has one or more aromatic rings and the [(tetrahydro-2H-pyran-2-yl)oxy]methyl groups are bound to the aromatic rings of the charge transporting compound, wherein the polymerization starts after some of the [(tetrahydro-2H-pyran-2-yl)oxylmethyl groups have been partially cleaved and eliminated, and wherein the three-dimensionally crosslinked film has an ionization potential of 5.4 or higher, wherein the ionization potential is measured with an apparatus for photoelectron spectroscopy in air and calculated through plotting based on 1/3 power of photoelectron yield, which involves plotting the 1/3 power of the number of photoelectrons against incident light energy at a light irradiation dose of 50nW to obtain a spectrum, and calculating the ionization potential by extrapolating a straight line segment in the rising of the spectrum.
Use of a combination of an anionic, a nonionic and an amphoteric surfactant which is non-toxic for gastropods, in a weight ratio of 0.2 to 2.2 anionic surfactant to 0.1 to 1.5 nonionic surfactant to 0.1 to 2.2 amphoteric surfactant, as an agent for repelling snails and slugs.
A gripper for a robot comprising a base body pivotable about a rotational axis, from which base body a plurality of circumferentially arranged supports extend, wherein a respective gripper jaw is attached to each support by means of a switchable bearing, characterized in that the bearing is switchable between a first state, where the gripper jaw is floatingly mounted to the support, and a second state, where the gripper jaw is rigidly connected to the support, the bearing comprising a spring element consisting of spring wire, by means of which spring element the gripper jaw is floatingly mounted to the support, the gripper jaw being mounted to the support, the spring element comprising a first curved section extending in the longitudinal direction of a recess in the support, the curved section passing through a guide which is fixedly connected to the support, and the curved section extending to the corners of a body of the gripper jaw, wherein curved portions (23, 24) extend from both corners to adjacent corners connected by another curved portion arranged in parallel to the first curved portion and extending in the longitudinal direction of the recess of the support and passing through the guide.