mhurhangee/ep-ind-claims huggingface dataset:
A wooden pallet comprising: a base layer comprising a pair of bottom end deck boards and a bottom center deck board between said pair of bottom end deck boards, with a width of said bottom center deck board being greater than a width of said bottom end deck boards; a cargo layer comprising a pair of spaced apart connector boards, a pair of spaced apart end deck boards on said pair of connector boards, with the end deck boards being orthogonal to said pair of connector boards, and a pair of spaced apart intermediate deck boards on said pair of connector boards, with each intermediate deck board being orthogonal to said pair of connector boards and butted against a respective end deck board; and a plurality of spaced apart support blocks (40, 46) coupled between said base and cargo layers and forming a gap therebetween for receiving a lifting member, said plurality of support blocks (40, 46) comprising corner support blocks and center support blocks between the corner support blocks, said center support blocks coupling said bottom center deck board to the cargo layer, with said corner support blocks and said center support blocks each having a rectangular shape defining a length direction, and with the length direction of said center support blocks being orthogonal to the length direction of said corner support blocks. a base layer comprising a pair of bottom end deck boards and a bottom center deck board between said pair of bottom end deck boards, with a width of said bottom center deck board being greater than a width of said bottom end deck boards; a cargo layer comprising a pair of spaced apart connector boards, a pair of spaced apart end deck boards on said pair of connector boards, with the end deck boards being orthogonal to said pair of connector boards, and a pair of spaced apart intermediate deck boards on said pair of connector boards, with each intermediate deck board being orthogonal to said pair of connector boards and butted against a respective end deck board; and a pair of spaced apart connector boards, a pair of spaced apart end deck boards on said pair of connector boards, with the end deck boards being orthogonal to said pair of connector boards, and a pair of spaced apart intermediate deck boards on said pair of connector boards, with each intermediate deck board being orthogonal to said pair of connector boards and butted against a respective end deck board; and a plurality of spaced apart support blocks (40, 46) coupled between said base and cargo layers and forming a gap therebetween for receiving a lifting member, said plurality of support blocks (40, 46) comprising corner support blocks and center support blocks between the corner support blocks, said center support blocks coupling said bottom center deck board to the cargo layer, with said corner support blocks and said center support blocks each having a rectangular shape defining a length direction, and with the length direction of said center support blocks being orthogonal to the length direction of said corner support blocks.
Loading flap device for animal transport vehicles for the transport of riding, pack or farm animals, comprising a loading flap which is pivotably provided between a substantially vertical transport position and a folded-down loading position, wherein in the folded-down loading position the loading flap is at a distance from the ground at least at one point along an outer edge (13, 14) surrounding the loading flap, wherein at least one extension device (20, 20') is provided, which can be arranged on the loading flap via at least one connecting means (22, 24) in such a way that, in the folded-down loading position of the loading flap, the extension device (20, 20') bridges the space between the loading flap and the ground at at least one point, characterized in that the extension device (20, 20'), which comprises a plurality of bridge sections or a bridge section comprising a plurality of individual elements, is attachable to the rear outer edge of the loading flap via connecting means (22, 24).
A method for congestion exposure within a local loop in a cellular network wherein congestion exposure information is localized rather than only end-to-end, and wherein the method is performed by an eNodeB of the local loop, said method comprising the steps of: receiving downlink packets destined for a User equipement,UE, the downlink packets having headers that indicate a level of congestion experienced by the downlink packets and a level of expected downstream congestion declared by a Packet Data Network-Gateway, PDN-GW, wherein the downlink packets are received through a General Packet Radio Service, GPRS, Tunneling Protocol, GTP, tunnel, and wherein the level of the expected downstream congestion declared by the UE is indicated in one of GTP headers and outer Internet Protocol, IP headers of the downlink packets received through the GTP tunnel, and the outer header of the downlink packets received through the GTP tunnel indicates Explicit Congestion Notification, ECN capable transport; forwarding the downlink packets to the UE through a wireless connection; sending packets upstream that have feedback indicative of the level of congestion experienced by the downlink packets and any congestion experienced within the eNodeB. receiving downlink packets destined for a User equipement,UE, the downlink packets having headers that indicate a level of congestion experienced by the downlink packets and a level of expected downstream congestion declared by a Packet Data Network-Gateway, PDN-GW, wherein the downlink packets are received through a General Packet Radio Service, GPRS, Tunneling Protocol, GTP, tunnel, and wherein the level of the expected downstream congestion declared by the UE is indicated in one of GTP headers and outer Internet Protocol, IP headers of the downlink packets received through the GTP tunnel, and the outer header of the downlink packets received through the GTP tunnel indicates Explicit Congestion Notification, ECN capable transport; forwarding the downlink packets to the UE through a wireless connection; sending packets upstream that have feedback indicative of the level of congestion experienced by the downlink packets and any congestion experienced within the eNodeB.
An apparel item configured to reduce distractions and facilitate upright sleeping, the apparel item comprising: a body portion configured to at least partially cover a front and back torso area of a wearer when the apparel item is worn, the body portion comprising at least a right side pocket (111, 113) and a left side pocket (115, 117) positioned at a front aspect of the body portion; a hood portion configured to at least partially cover a head area of the wearer when the apparel item is worn; and a strap system configured to maintain the head of the wearer in a static position, the strap system comprising: a first strap segment having a first end, a second end, and a first intervening portion extending between the first end and the second end, wherein the first end is positioned at a first location on a right side of the hood portion and the second end is secured in an interior portion of the left side pocket (115, 117), a second strap segment having a third end, a fourth end, and a second intervening portion extending between the third end and the fourth end, wherein the third end is positioned at a second location on a left side of the hood portion and the fourth end is secured in an interior portion of the right side pocket (111, 113), and a third strap segment having a fifth end, a sixth end, and a third intervening portion extending between the fifth end and the sixth end, wherein the fifth end is coupled to the first end of the first strap segment and the sixth end is coupled to the third end of the second strap segment.
A structural fiber-reinforced composite comprising: a plurality of prepreg layers, each comprising a polymeric resin and a plurality of fibers disposed therein; and a first electrically-conductive layer in contact with the plurality of prepreg layers wherein the first electrically-conductive layer is in the form of a first set of ribbons aligned in a first direction, a second electrically-conductive layer in contact with the plurality of prepreg layers wherein the second electrically-conductive layer is in the form of a second set of ribbons aligned in a second direction, insulating layers lining the major surfaces of the first and second set of ribbons, wherein the first direction is different from the second direction such that the first and second electrically-conductive layers overlap with each other at intersections when viewed from a direction perpendicular to a major surface of the composite, and wherein the insulating layers prevent the first set of electrically-conductive ribbons from being in electrical contact with the second set of electrically-conductive ribbons at the intersections. a plurality of prepreg layers, each comprising a polymeric resin and a plurality of fibers disposed therein; and a first electrically-conductive layer in contact with the plurality of prepreg layers wherein the first electrically-conductive layer is in the form of a first set of ribbons aligned in a first direction, a second electrically-conductive layer in contact with the plurality of prepreg layers wherein the second electrically-conductive layer is in the form of a second set of ribbons aligned in a second direction, insulating layers lining the major surfaces of the first and second set of ribbons, wherein the first direction is different from the second direction such that the first and second electrically-conductive layers overlap with each other at intersections when viewed from a direction perpendicular to a major surface of the composite, and wherein the insulating layers prevent the first set of electrically-conductive ribbons from being in electrical contact with the second set of electrically-conductive ribbons at the intersections.
Process for the preparation of a functionalized hybrid solid with an organic-inorganic matrix, crystallized, bearing at least one reactive group based on a triazole ring, from a crystallized hybrid solid with an organic-inorganic matrix, MOF-NH 2, containing an inorganic network of metallic sites joined together at least by organic ligands comprising at least one aromatic ring, at least two carboxylate functions CO 2 - and at least one amine function -NH 2, said process comprising at least the following successive stages: i/ introduction, in a polar solvent S1, of said crystallized hybrid solid MOF-NH 2, at least one organic compound Q containing a nitride function N 3 and at least one intermediate reagent R containing a nitrite function NO 2 in proportions such that the reaction mixture has the following molar composition, based on one molar equivalent of the function -NH 2 present in the solid MOF-NH 2: 1 MOF-NH 2: 1-150 R: 1-150 Q: 100-400 S1 ii/ reaction of said reaction mixture at a temperature between 0 and 100°C for a time between 1 and 24 hours, iii/ introduction, in the reaction mixture, of at least one reagent A comprising at least one alkyne or activated cyanide COCN terminal function, at least one copper-based catalyst C and at least one polar solvent S2 in proportions such that the reaction mixture has the following composition, based on one molar equivalent of the function -NH 2 present initially in the solid MOF-NH 2: 1 MOF-NH 2: 0.1-10 C: 1-150 R: 1-150 Q: 1-150 A: 100 - 600 (S1 + S2) iv/ reaction of said reaction mixture at a temperature between 0 and 100°C for a time between 1 and 48 hours, v/ filtration and then washing of said crystallized functionalized hybrid solid, vi/ drying of said crystallized functionalized hybrid solid. i/ introduction, in a polar solvent S1, of said crystallized hybrid solid MOF-NH 2, at least one organic compound Q containing a nitride function N 3 and at least one intermediate reagent R containing a nitrite function NO 2 in proportions such that the reaction mixture has the following molar composition, based on one molar equivalent of the function -NH 2 present in the solid MOF-NH 2: 1 MOF-NH 2: 1-150 R: 1-150 Q: 100-400 S1 1 MOF-NH 2: 1-150 R: 1-150 Q: 100-400 S1 ii/ reaction of said reaction mixture at a temperature between 0 and 100°C for a time between 1 and 24 hours, iii/ introduction, in the reaction mixture, of at least one reagent A comprising at least one alkyne or activated cyanide COCN terminal function, at least one copper-based catalyst C and at least one polar solvent S2 in proportions such that the reaction mixture has the following composition, based on one molar equivalent of the function -NH 2 present initially in the solid MOF-NH 2: 1 MOF-NH 2: 0.1-10 C: 1-150 R: 1-150 Q: 1-150 A: 100 - 600 (S1 + S2) 1 MOF-NH 2: 0.1-10 C: 1-150 R: 1-150 Q: 1-150 A: 100 - 600 (S1 + S2) iv/ reaction of said reaction mixture at a temperature between 0 and 100°C for a time between 1 and 48 hours, v/ filtration and then washing of said crystallized functionalized hybrid solid, vi/ drying of said crystallized functionalized hybrid solid.
A device for transforming plastic preforms into plastic containers by means of a transport apparatus at which a plurality of blowing stations are arranged, wherein these blowing stations each include exchangeable blowing moulds, each of which are forming a cavity in which the plastic preforms are transformed into the plastic containers, and wherein the blowing stations each include charging apparatuses which charge the plastic preforms for the expansion thereof with a free-flowing medium, wherein at least one exchangeable element (12, 14, 16, 18) of the blowing stations respectively includes a detection area at a predetermined geometrical area of its surface which is uniquely characteristic for the respective exchangeable element (12, 14, 16, 18), and wherein the device further includes a sensing apparatus for the contactless sensing of this detection area, wherein the sensing apparatus is oriented towards the detection area of the exchangeable element (12, 14, 16, 18), characterised in that the detection area itself is formed by a surface of the exchangeable element (12, 14, 16, 18), and wherein the detection area has a unique structure and in particular a unique microstructure which is not detectable by human eyes.
A detector arranged for detecting ionizing radiation, said detector comprising a Gd 2 O 2 S: Nd fluorescent material, wherein the Nd 3+ concentration is between ≥ 10 and ≤ 2000 wt. ppm, wherein the detector is preferably an X-ray detector, CT-detector or Electronic Portal Imaging detector.
A spiral wound module assembly comprising: a pressure vessel comprising: a chamber extending along an axis between a first end and a second end, at least one feed inlet port, concentrate outlet port and permeate outlet port, and a removable end plate located at the first end of the vessel, wherein the permeate outlet port extends axially through the removable end plate; a plurality of spiral wound modules (2, 2') axially aligned in serial arrangement within the chamber with a first module located adjacent the first end and a second module located adjacent the second end, wherein each spiral wound module (2, 2') comprises at least one membrane envelope wound about a permeate collection tube and wherein the permeate collection tubes of each spiral wound module (2, 2') are in sealed fluid communication with each other; a permeate adaptor tube in sealed fluid communication with the permeate collection tube of the first spiral wound module and the permeate outlet port, wherein the permeate adaptor tube defines an inner periphery adapted to contain permeate; and a gap space located between the first spiral wound module and the first end; wherein the assembly is characterized by including a monitoring system comprising: a first set of sensors in contact with the inner periphery of the permeate adaptor tube; and a micro-processing unit located in the gap space and connected to the first set of sensors by a first set of wires. a pressure vessel comprising: a chamber extending along an axis between a first end and a second end, at least one feed inlet port, concentrate outlet port and permeate outlet port, and a removable end plate located at the first end of the vessel, wherein the permeate outlet port extends axially through the removable end plate; a plurality of spiral wound modules (2, 2') axially aligned in serial arrangement within the chamber with a first module located adjacent the first end and a second module located adjacent the second end, wherein each spiral wound module (2, 2') comprises at least one membrane envelope wound about a permeate collection tube and wherein the permeate collection tubes of each spiral wound module (2, 2') are in sealed fluid communication with each other; a permeate adaptor tube in sealed fluid communication with the permeate collection tube of the first spiral wound module and the permeate outlet port, wherein the permeate adaptor tube defines an inner periphery adapted to contain permeate; and a gap space located between the first spiral wound module and the first end; wherein the assembly is characterized by including a monitoring system comprising: a first set of sensors in contact with the inner periphery of the permeate adaptor tube; and a micro-processing unit located in the gap space and connected to the first set of sensors by a first set of wires. a first set of sensors in contact with the inner periphery of the permeate adaptor tube; and a micro-processing unit located in the gap space and connected to the first set of sensors by a first set of wires.
A method for producing an internally-coated chamber of a tank for operating media of motor vehicles, with two metallic semi-shells (3, 4) one of which has at least one opening spaced apart from the semi-shell's rim, comprising the steps: applying coating material to the concave inner face (16, 17) of each semi-shell (3, 4) while leaving blank a respective circumferential rim area (21, 22) originating from the rim (5, 20) of the semi-shell (3, 4); joining together the semi-shells (3, 4) at the rim areas (21, 22), externally welding the rim areas (21, 22) with a circumferential weld seam, and allowing the same to cool down; and inserting a spray nozzle (26', 26") through the at least one opening and spraying further coating material onto those parts (28, 29) of the rim areas (21, 22) that present themselves to the inside. applying coating material to the concave inner face (16, 17) of each semi-shell (3, 4) while leaving blank a respective circumferential rim area (21, 22) originating from the rim (5, 20) of the semi-shell (3, 4); joining together the semi-shells (3, 4) at the rim areas (21, 22), externally welding the rim areas (21, 22) with a circumferential weld seam, and allowing the same to cool down; and inserting a spray nozzle (26', 26") through the at least one opening and spraying further coating material onto those parts (28, 29) of the rim areas (21, 22) that present themselves to the inside.
A process for the separation of monoethylene glycol and 1,2-butanediol (1,2-BDO) from a first mixture comprising MEG and 1,2-BDO, said process comprising the steps of: (i) providing said first mixture comprising MEG and 1,2-BDO as a feed to a distillation column; (ii) providing a feed comprising glycerol to the distillation column above the first mixture; (iii) operating the distillation column at a temperature in the range of from 50 to 250 °C and a pressure in the range of from 0.1 to 400 kPa; (iv) removing a stream comprising MEG and glycerol as a bottoms stream from the distillation column; and (v) removing a stream comprising 1,2-BDO above the point at which the feed comprising glycerol is provided to the distillation column. (i) providing said first mixture comprising MEG and 1,2-BDO as a feed to a distillation column; (ii) providing a feed comprising glycerol to the distillation column above the first mixture; (iii) operating the distillation column at a temperature in the range of from 50 to 250 °C and a pressure in the range of from 0.1 to 400 kPa; (iv) removing a stream comprising MEG and glycerol as a bottoms stream from the distillation column; and (v) removing a stream comprising 1,2-BDO above the point at which the feed comprising glycerol is provided to the distillation column.
An electroacoustic transducer, comprising: a diaphragm (1; 41; 47; 51; 61; 65; 71; 75) comprising two pairs of longitudinal split tubular surfaces; a converter that is configured to perform conversion between vibration of the diaphragm (1; 41; 47; 51; 61; 65; 71; 75) and an electric signal corresponding to the vibration; and a supporter that is configured to support the diaphragm (1; 41; 47; 51; 61; 65; 71; 75) such that the diaphragm (1; 41; 47; 51; 61; 65; 71; 75) is movable in a vibration direction, wherein the diaphragm (1; 41; 47; 51; 61; 65; 71; 75) is configured such that the two pairs of longitudinal split tubular surfaces form valleys and ridge portions, wherein in each pair of the two pairs of longitudinal split tubular surfaces, one-side portions of the respective longitudinal split tubular surfaces form a valley, and wherein other-side portions of the longitudinal split tubular surfaces of each one and the other of the two pairs form a ridge portion, and wherein the two pairs of longitudinal split tubular surfaces are arranged in at least one of a state in which the valleys are orthogonal to each other and a state in which the ridge portions are orthogonal to each other. a diaphragm (1; 41; 47; 51; 61; 65; 71; 75) comprising two pairs of longitudinal split tubular surfaces; a converter that is configured to perform conversion between vibration of the diaphragm (1; 41; 47; 51; 61; 65; 71; 75) and an electric signal corresponding to the vibration; and a supporter that is configured to support the diaphragm (1; 41; 47; 51; 61; 65; 71; 75) such that the diaphragm (1; 41; 47; 51; 61; 65; 71; 75) is movable in a vibration direction, wherein the diaphragm (1; 41; 47; 51; 61; 65; 71; 75) is configured such that the two pairs of longitudinal split tubular surfaces form valleys and ridge portions, wherein in each pair of the two pairs of longitudinal split tubular surfaces, one-side portions of the respective longitudinal split tubular surfaces form a valley, and wherein other-side portions of the longitudinal split tubular surfaces of each one and the other of the two pairs form a ridge portion, and wherein the two pairs of longitudinal split tubular surfaces are arranged in at least one of a state in which the valleys are orthogonal to each other and a state in which the ridge portions are orthogonal to each other.