mhurhangee/ep-ind-claims huggingface dataset:
A residue management system (170, 870) for an agricultural vehicle, comprising: a straw hood (171, 871) defining a first rear opening (272, 872) and a second rear opening (273, 873); a windrow chute (210, 810) held adjacent to said first rear opening (272, 872); and a spreader assembly (220, 720, 820) held adjacent to said second rear opening (273, 873); a conveyor (240, 840) held within said straw hood (171, 871) and defining a conveyor axis of rotation (CA1, CA2); characterized by: a selection door (250, 850A) pivotably coupled to said straw hood (171, 871) and defining a pivot axis (PA, CPA) which is rearward and below said conveyor axis of rotation (CA1, CA2), said selection door (250, 850A) being configured to switch between a first position in which said selection door (250, 850A) bridges a gap between said conveyor (240, 840) and said first rear opening (272, 872) so that material from said conveyor (240, 840) flows across said selection door (250, 850A) and is directed toward said first rear opening (272, 872) and a second position in which said selection door (250, 850A) exposes said gap so that material from said conveyor (240, 840) is directed toward said second rear opening (273, 873). a straw hood (171, 871) defining a first rear opening (272, 872) and a second rear opening (273, 873); a windrow chute (210, 810) held adjacent to said first rear opening (272, 872); and a spreader assembly (220, 720, 820) held adjacent to said second rear opening (273, 873); a conveyor (240, 840) held within said straw hood (171, 871) and defining a conveyor axis of rotation (CA1, CA2); characterized by: a selection door (250, 850A) pivotably coupled to said straw hood (171, 871) and defining a pivot axis (PA, CPA) which is rearward and below said conveyor axis of rotation (CA1, CA2), said selection door (250, 850A) being configured to switch between a first position in which said selection door (250, 850A) bridges a gap between said conveyor (240, 840) and said first rear opening (272, 872) so that material from said conveyor (240, 840) flows across said selection door (250, 850A) and is directed toward said first rear opening (272, 872) and a second position in which said selection door (250, 850A) exposes said gap so that material from said conveyor (240, 840) is directed toward said second rear opening (273, 873).
A process for the reduction of the MFR 2 (ISO1133, 2.16 kg, 190°C) of a polyethylene comprising the following steps: (i) forming a mixture by combining (i-1) a metallocene produced polyethylene copolymer having an MFR 2 (starting) of 0.5 to 10.0 g/10min (ISO1133, 2.16 kg, 190°C) and a density from 910 to 945 kg/m 3 with (i-2) 0.05 to 1.0 wt%, based on the total weight of the mixture, of a poly(n)functional acrylate, with n ≥ 2, as co-agent and optional with (i-3) a radical initiator; (ii) extruding the mixture of step (i) at a temperature above the melting point of the polyethylene copolymer and, in case a radical initiator (i-3) is present, at a temperature above the initiation temperature of the initiator to yield a modified polyethylene copolymer in the form of pellets; wherein said pellets have a density of 910 to 945 kg/m 3, a xylene insoluble content (XHU, determined as described in the experimental part) of below 0.1 wt%, an MFR 2 (pellets) of 0.001 to 4.0 g/10min (ISO1133, 2.16 kg, 190°C) and wherein the MFR 2 (pellets) is lower than MFR 2 (starting) such that MFR 2 (pellets)/MFR 2 (starting) is 0.60 or less and a F 30 melt strength >10.5 cN as measured according to ISO 16790:2005 at a die pressure of 30 bar. (i) forming a mixture by combining (i-1) a metallocene produced polyethylene copolymer having an MFR 2 (starting) of 0.5 to 10.0 g/10min (ISO1133, 2.16 kg, 190°C) and a density from 910 to 945 kg/m 3 with (i-2) 0.05 to 1.0 wt%, based on the total weight of the mixture, of a poly(n)functional acrylate, with n ≥ 2, as co-agent and optional with (i-3) a radical initiator; (i-1) a metallocene produced polyethylene copolymer having an MFR 2 (starting) of 0.5 to 10.0 g/10min (ISO1133, 2.16 kg, 190°C) and a density from 910 to 945 kg/m 3 with (i-2) 0.05 to 1.0 wt%, based on the total weight of the mixture, of a poly(n)functional acrylate, with n ≥ 2, as co-agent and optional with (i-3) a radical initiator; (ii) extruding the mixture of step (i) at a temperature above the melting point of the polyethylene copolymer and, in case a radical initiator (i-3) is present, at a temperature above the initiation temperature of the initiator to yield a modified polyethylene copolymer in the form of pellets; wherein said pellets have a density of 910 to 945 kg/m 3, a xylene insoluble content (XHU, determined as described in the experimental part) of below 0.1 wt%, an MFR 2 (pellets) of 0.001 to 4.0 g/10min (ISO1133, 2.16 kg, 190°C) and wherein the MFR 2 (pellets) is lower than MFR 2 (starting) such that MFR 2 (pellets)/MFR 2 (starting) is 0.60 or less and a F 30 melt strength >10.5 cN as measured according to ISO 16790:2005 at a die pressure of 30 bar.
A system to non-invasively deliver a beam of radiation to a target region of skin, comprising: an optical energy source and a handpiece, the handpiece including an optical system to direct the beam of radiation to the target region of skin, the handpiece being further configured to be positioned in contact with a skin surface; wherein the optical energy source is configured to provide a beam of radiation within a range of wavelengths that are transmittable to fatty tissue and absorbable by the fatty tissue in a target region of skin; and wherein the wavelength is one of a group of wavelengths consisting of the wavelength about 1,208 nm, 1,270 nm, 1,310 nm, 1,450 nm, 1,550 nm, 1,720 nm, characterized in that the optical system comprises a planoconvex lens configured to focus radiation from the optical energy source to a sub surface focal region about 0.5 mm to about 10 mm below the surface of the skin when the planoconvex lens contacts the skin and is pressed against or into the skin to displace blood in the dermis, thereby increasing the transmission of the radiation through the dermis and reducing unwanted injury to the skin. an optical energy source and a handpiece, the handpiece including an optical system to direct the beam of radiation to the target region of skin, the handpiece being further configured to be positioned in contact with a skin surface; wherein the optical energy source is configured to provide a beam of radiation within a range of wavelengths that are transmittable to fatty tissue and absorbable by the fatty tissue in a target region of skin; and wherein the wavelength is one of a group of wavelengths consisting of the wavelength about 1,208 nm, 1,270 nm, 1,310 nm, 1,450 nm, 1,550 nm, 1,720 nm, characterized in that the optical system comprises a planoconvex lens configured to focus radiation from the optical energy source to a sub surface focal region about 0.5 mm to about 10 mm below the surface of the skin when the planoconvex lens contacts the skin and is pressed against or into the skin to displace blood in the dermis, thereby increasing the transmission of the radiation through the dermis and reducing unwanted injury to the skin.
Fuel injector for injecting fuel into a combustion chamber of an internal combustion engine, having a nozzle body, a nozzle needle, a holding body and an electromagnetic coil, wherein the holding body is braced with the nozzle body, wherein a pressure chamber, in which the nozzle needle is arranged in a longitudinally displaceable manner, is formed in the nozzle body, and wherein the nozzle needle, through its longitudinal movement, interacts with a nozzle needle seat and thereby opens and closes at least one injection opening into the combustion chamber, wherein the coil is arranged so as to at least partially radially surround the nozzle needle, wherein the coil is connected in an electrically conducting manner to at least one contact pin, wherein the at least one contact pin is arranged in a holding body clearance formed in the holding body, characterized in that the at least one contact pin projects into a nozzle body clearance, preferably a bore or a groove, which is formed in the nozzle body and thereby positions the nozzle body with respect to the holding body, wherein the holding body clearance and/or the nozzle body clearance are or is a bore, and the at least one contact pin is pressed into the bore or into the bores in a media-tight manner.
A device for simulating an environment of a system for monitoring an infrastructure, said monitoring system comprising one or more applications (120, 111, 112, 113) for monitoring real equipment of said infrastructure and a common monitoring infrastructure, on which said monitoring applications (120, 111, 112, 113) are connected, characterised in that it comprises a model for generating three-dimensional representations of a situation in said infrastructure on the basis of real data, said real data originating from real equipment monitored by said monitoring system by means of an interface between said common monitoring infrastructure and said simulation device, said real data being supplemented by virtual data originating from simulation models (104, 105, 121), said virtual data being deduced by said simulation models (104, 105, 121, 118) from said real data originating directly from said common monitoring infrastructure, said virtual data modelling data describing the situation in said infrastructure, which data is not transmitted by said monitored real equipment, and in that said simulation device comprises first models (101, 102) simulating equipment of said infrastructure, said first models (101, 102) having a real mode operation during which said data originating from said real equipment is converted into simulated data, then broadcast towards said other simulation models (105, 118, 121) via a synthetic environment infrastructure.
A solar cell module including a plurality of solar cells interconnected with wiring members which extend in one direction, each of the solar cells comprising: a plurality of front-side finger electrodes disposed on a light-receiving surface of the solar cell and connected with the wiring members; and a plurality of rear-side finger electrodes disposed on a rear surface of the solar cell and connected with the wiring members, wherein the finger electrodes on at least one of the front side and rear side include auxiliary electrode sections at positions opposite to regions where the wiring members are to be connected and where the finger electrodes on the other side face and the wiring members are to be disposed, the auxiliary electrode sections cover the regions wider than regions where the finger electrodes on the other side are disposed, and the auxiliary electrode sections have a wider width in the one direction than the finger electrodes on the one side. a plurality of front-side finger electrodes disposed on a light-receiving surface of the solar cell and connected with the wiring members; and a plurality of rear-side finger electrodes disposed on a rear surface of the solar cell and connected with the wiring members, wherein the finger electrodes on at least one of the front side and rear side include auxiliary electrode sections at positions opposite to regions where the wiring members are to be connected and where the finger electrodes on the other side face and the wiring members are to be disposed, the auxiliary electrode sections cover the regions wider than regions where the finger electrodes on the other side are disposed, and the auxiliary electrode sections have a wider width in the one direction than the finger electrodes on the one side.
A charging pile, comprising a power unit and a charging gun, wherein the charging gun is configured to connect the power unit and an electric device, a first switch is connected between the power unit and the charging gun, and a second switch is connected between the battery pack in the electric device and the charging pile; and the charging pile is configured to: receive a first message from the electric device, wherein the first message carries a first current value required for heating a battery pack of the electric device; and control the power unit to charge and discharge the battery pack based on the first current value, wherein a second current value output when the power unit charges the battery pack is not greater than the first current value; and before controlling the power unit to charge and discharge the battery pack based on the first current value, the charging pile is further configured to: receive a third message from the electric device, wherein the third message indicates that the second switch is turned on; and control the first switch to be turned on. receive a first message from the electric device, wherein the first message carries a first current value required for heating a battery pack of the electric device; and control the power unit to charge and discharge the battery pack based on the first current value, wherein a second current value output when the power unit charges the battery pack is not greater than the first current value; and before controlling the power unit to charge and discharge the battery pack based on the first current value, the charging pile is further configured to: receive a third message from the electric device, wherein the third message indicates that the second switch is turned on; and control the first switch to be turned on. receive a third message from the electric device, wherein the third message indicates that the second switch is turned on; and control the first switch to be turned on.
A multilayer molding comprising a. an outer layer comprising i. a thermoplastic polymer and ii. at least one nanoscale IR absorber, and also b. an inner layer arranged under the outer layer and comprising i. a thermoplastic polymer, where the IR absorber is a nanoparticulate tin oxide doped with antimony or indium, or is a nanoparticulate boride of the rare earths. a. an outer layer comprising i. a thermoplastic polymer and ii. at least one nanoscale IR absorber, and also i. a thermoplastic polymer and ii. at least one nanoscale IR absorber, and also b. an inner layer arranged under the outer layer and comprising i. a thermoplastic polymer, i. a thermoplastic polymer,
A process for producing an amino acid comprising the following reaction steps: a) amidocarbonylation reaction, wherein an aldehyde is reacted in an organic solvent with an amide and carbon monoxide and hydrogen to give an N -acyl amino acid in the presence of a transition metal carbonyl catalyst, b) recovery of the formed N -acyl amino acid from the reaction mixture; and c) hydrolysis of the recovered N -acyl amino acid in an aqueous medium to obtain the corresponding amino acid and carboxylic acid; d) reuse of the reaction mixture of step a) comprising the catalyst and solvent after separation of the N -acyl amino acid by feeding into the amidocarbonylation step a) optionally after supplementing lost solvent and spent catalyst characterized in that the amide used in step a) is regenerated such that after separation of the amino acid the carboxylic acid formed by hydrolysis is extracted and brought into contact with aqueous ammonia, formed ammonium carboxylate is separated, said carboxylate is subjected to a dehydration reaction for obtaining carboxylic acid amide, and said carboxylic acid amide is fed to the amidocarbonylation reaction. a) amidocarbonylation reaction, wherein an aldehyde is reacted in an organic solvent with an amide and carbon monoxide and hydrogen to give an N -acyl amino acid in the presence of a transition metal carbonyl catalyst, b) recovery of the formed N -acyl amino acid from the reaction mixture; and c) hydrolysis of the recovered N -acyl amino acid in an aqueous medium to obtain the corresponding amino acid and carboxylic acid; d) reuse of the reaction mixture of step a) comprising the catalyst and solvent after separation of the N -acyl amino acid by feeding into the amidocarbonylation step a) optionally after supplementing lost solvent and spent catalyst characterized in that the amide used in step a) is regenerated such that after separation of the amino acid the carboxylic acid formed by hydrolysis is extracted and brought into contact with aqueous ammonia, formed ammonium carboxylate is separated, said carboxylate is subjected to a dehydration reaction for obtaining carboxylic acid amide, and said carboxylic acid amide is fed to the amidocarbonylation reaction.
System for monitoring at least two mains voltage sensors (N a, N b, N c), whereby the system has a control unit and an electrical communication line and at least two mains voltage sensors (N a, N b, N c), whereby each mains voltage sensor (N a, N b, N c) has a mains voltage sensor switching device (NSW a, NSW b, NSW c) by means of which the electrical communication line can be interrupted as soon as the mains voltage sensor (N a, Nb, NJ detects a drop in voltage or failure in voltage on at least one electrical supply line (3a, 3b, 3c) and the ends of the communication line are connected to an output and an input of the control unit, whereby when an interruption in the communication line is detected the control unit triggers an action, characterised in that each mains voltage sensor (N a, N b, N c) is assigned a monitoring device (7, 7a, 7b, 7c), whereby this is arranged external to the mains voltage sensor (N a, N b, N c) or is integrated into the mains voltage sensor itself (N a, N b, N c) and by means of the control unit interacting with the respective monitoring devices (7, 7a, 7b, 7c) the function and/or functionality of the mains voltage sensors (N a, N b, N c) can be checked, whereby in order to do this the control unit communicates with the monitoring devices (7, 7a, 7b, 7c) either via the communication line, a separate line or a radio transmission route, and in that each monitoring device (7, 7a, 7b, 7c) has a control device which controls a switching device (8, 8a, 8b, 8c), whereby the communication line can be interrupted by means of the switching device (8, 8a, 8b, 8c) and the monitoring device (7, 7a, 7b, 7c) has at least one test switching device (9, 9a, 9b, 9c) for the optional interruption of a supply line to be monitored, whereby the control device of the monitoring device (7, 7a, 7b, 7c) controls the test switching device (9, 9a, 9b, 9c).
A liquid ejection head for ejecting a liquid while being scanned in a main scanning direction, comprising: an ejection element configured to generate a pressure for ejecting the liquid in a pressure chamber; a supply channel through which the liquid is supplied to the pressure chamber; a collection channel connected to the supply channel through the pressure chamber and through which the liquid is collected from the pressure chamber; a circulation pump capable of supplying the liquid from the supply channel into the pressure chamber, and collecting the liquid in the pressure chamber through the collection channel and sending the liquid to the supply channel; a first pressure adjustment unit disposed between an outlet channel of the circulation pump and the supply channel and configured to adjust a pressure in the supply channel; and a second pressure adjustment unit disposed between an inlet channel of the circulation pump and the collection channel and configured to adjust a pressure in the collection channel. an ejection element configured to generate a pressure for ejecting the liquid in a pressure chamber; a supply channel through which the liquid is supplied to the pressure chamber; a collection channel connected to the supply channel through the pressure chamber and through which the liquid is collected from the pressure chamber; a circulation pump capable of supplying the liquid from the supply channel into the pressure chamber, and collecting the liquid in the pressure chamber through the collection channel and sending the liquid to the supply channel; a first pressure adjustment unit disposed between an outlet channel of the circulation pump and the supply channel and configured to adjust a pressure in the supply channel; and a second pressure adjustment unit disposed between an inlet channel of the circulation pump and the collection channel and configured to adjust a pressure in the collection channel.
An anchoring element having a first anchor part and a second anchor part arranged on the first anchor part by means of a sleeve-like coupling element, wherein the first anchor part comprises a head element such that the first anchor part is arranged in the coupling element to be movable relative to the second anchor part, in particular like a ball joint, wherein the coupling element is attachable to the second anchor part by means of a thread arrangement, and wherein at least one blocking element is provided on the second anchor part and/or on the coupling element, the end position of the thread arrangement, relevant for mounting the anchoring element, being determined using said blocking element, characterized in that the blocking element comprises a notch and/or a weld and/or an adhesion.
A cytotoxic compound able to specifically kill A Disintegrin and Metalloproteinase 12 (ADAM 12) expressing stromal cells for use to prevent or treat inflammation - induced fibrosis, wherein said compound comprises a targeting molecule which is an antibody specific for ADAM12 protein and a cytotoxic molecule which is a toxin.
Outflow housing for a turbine section of a steam turbine, having an outflow housing wall, which surrounds a central drum chamber along a housing longitudinal axis, and an attachment interface for the attachment of the outflow housing to a turbine housing of the steam turbine, wherein, on the outflow housing wall, there is arranged a sealing device for sealing off a rear end, as viewed in a flow direction, of the outflow housing with respect to a turbine shaft of the steam turbine, wherein the sealing device is sealed off with respect to the outflow housing wall, wherein the attachment interface is formed on an outer side, averted from the drum chamber, of the outflow housing wall, characterized in that no attachment interface for the attachment of the outflow housing to the turbine housing of the steam turbine is formed on the outflow housing adjacent to the sealing device in a radial direction.
A method of synthesizing (1-{9-[(4S,2R,3R,5R)-3,4-dihydroxy-5-(hydroxymethyl)oxolan-2-yl]-6-aminopurin-2-yl}pyrazol-4-yl)-N-methylcarboxamide comprising the steps of: contacting a compound of formula: with a 5-10 fold molar excess of ethyl 2-formyl-3-oxopropionate, optionally in the presence of acid, to yield a compound of formula: and contacting the compound of formula with aqueous methylamine at a temperature of approximately 2.5-7.5°C to yield (1-{9-[(4S,2R,3R,5R)-3,4-dihydroxy-5-(hydroxy-methyl)oxolan-2-yl]-6-aminopurin-2-yl}pyrazol-4-yl)-N-methylcarboxamide. contacting a compound of formula: with a 5-10 fold molar excess of ethyl 2-formyl-3-oxopropionate, optionally in the presence of acid, to yield a compound of formula: and contacting the compound of formula with aqueous methylamine at a temperature of approximately 2.5-7.5°C to yield (1-{9-[(4S,2R,3R,5R)-3,4-dihydroxy-5-(hydroxy-methyl)oxolan-2-yl]-6-aminopurin-2-yl}pyrazol-4-yl)-N-methylcarboxamide.