mhurhangee/ep-ind-claims huggingface dataset:
A system for treating the waters of an industrial plant, in particular a plant for generating energy, comprising a homogenization bath from which is taken the requirement for the various plant services, a biological section for the treatment of biological waters, a de-oiling section for the treatment of oily waters, a neutralization section for the treatment of acidic/alkaline waters, a demineralization section, and a crystallization section, set in series downstream of the demineralization section so as to receive a concentrated solution coming from the demineralization section and send a saturated concentrate to the homogenization bath; the demineralization section being connected, via the homogenization bath, to the biological section, the de-oiling section, and the neutralization section, in such a way to be supplied with the waters treated in the biological section, in the de-oiling section, in the neutralization section and collected in the homogenization bath; the demineralization section comprising a tank of demineralized water from which demineralized water is drawn off for making available demineralized water for operation of the plant; and wherein the demineralization section comprises an inverse-osmosis unit, which produces a permeate and a concentrate, and an electrodeionization unit, which is connected to the inverse-osmosis unit for treating the permeate coming from the inverse-osmosis unit; and the crystallization section is connected to the inverse-osmosis unit in such a way to be supplied with the concentrate coming from the inverse-osmosis unit; the inverse-osmosis unit comprising three stages (55, 56, 57) of which: the first stage produces a permeate that feeds the second stage and a concentrate that feeds the third stage; the second stage produces a permeate, exiting from the inverse-osmosis unit and feeding the electrodeionization unit, and a concentrate that is recycled at the first stage; the third stage produces a permeate that is recycled at the first stage and said concentrated solution exiting from the inverse-osmosis unit and sent on, for a further concentration, to the crystallization section.
A connector with a quick positioning structure and a plug structure, and the plug structure comprising: a base; a terminal group, installed in the base; an inner socket, fixed onto the base, for passing the terminal group; a positioning ring, sheathed on the inner socket, and extending in an axial direction and a horizontal plane perpendicular to the axial direction, and the positioning ring comprising a ring plate, and a plurality of elastic plates extending in the axial direction from the ring plate, and the elastic plates being spaced with each other and arranged in a circular shape on the ring plate, a plurality of hooks, each hook being arranged on a corresponding elastic plate; an outer socket, comprising an outer circular seat disposed outside the inner socket and an outer circular plate coupled to the outer circular seat, and the outer circular plate comprising a plurality of notches configured to be corresponsive to the hooks respectively, and the outer circular seat being sheathed on the positioning ring to protrude the hooks out of the notches, characterized in that the hooks are configured to have distances axially relative to an end of the ring plate being not equal or being partially equal. a base; a terminal group, installed in the base; an inner socket, fixed onto the base, for passing the terminal group; a positioning ring, sheathed on the inner socket, and extending in an axial direction and a horizontal plane perpendicular to the axial direction, and the positioning ring comprising a ring plate, and a plurality of elastic plates extending in the axial direction from the ring plate, and the elastic plates being spaced with each other and arranged in a circular shape on the ring plate, a plurality of hooks, each hook being arranged on a corresponding elastic plate; an outer socket, comprising an outer circular seat disposed outside the inner socket and an outer circular plate coupled to the outer circular seat, and the outer circular plate comprising a plurality of notches configured to be corresponsive to the hooks respectively, and the outer circular seat being sheathed on the positioning ring to protrude the hooks out of the notches,
Firing installation which can be fired using fuels such as wood, straw or other renewable fuels or using carbon, comprising a furnace that can be closed and a combustion air connection comprising a combustion air supply, the furnace comprising a primary air supply and a secondary air supply for the combustion air supply and an exhaust gas duct that can be connected to a chimney, the combustion air supply comprising a bypass line that forms a chimney controller and connects the combustion air supply to the exhaust gas duct, bypassing the furnace, and comprising at least one throttle device for releasing, throttling or closing the flow path by means of the bypass line, depending on a chimney draught pressure, and the combustion air supply and/or the exhaust gas duct comprising a flow throttle device, characterised in that the combustion air supply comprises a primary air supply and a secondary air supply having respective throttle devices.
Boost converter, comprising: two or more inputs, to each of which there can be connected a DC voltage source (10a, 10b, 10c) having a positive and a negative potential; and a common output, at which a DC voltage can be provided, the value of said DC voltage being greater than or equal to those of the input voltages, wherein the common output is connected to each of the plurality of inputs respectively via a supply line conducting a positive potential, that is to say a positive supply line, and a supply line conducting a negative potential, that is to say a negative supply line, at least one inductor (12a, 12b, 12c, 12d) is arranged in the positive supply line and/or the negative supply line from each input, and at least one rectification element (16a, 16b, 16c, 16d) is arranged in the positive supply line and/or the negative supply line from each input, characterized in that the inputs can be connected in series via the inductors (12a, 12b, 12c, 12d) by means of two or more switching elements (14a, 14b, 14c, 14d), wherein in each case at least two of the inductors (12a, 12b, 12c, 12d) can be connected in parallel. two or more inputs, to each of which there can be connected a DC voltage source (10a, 10b, 10c) having a positive and a negative potential; and a common output, at which a DC voltage can be provided, the value of said DC voltage being greater than or equal to those of the input voltages, wherein the common output is connected to each of the plurality of inputs respectively via a supply line conducting a positive potential, that is to say a positive supply line, and a supply line conducting a negative potential, that is to say a negative supply line, at least one inductor (12a, 12b, 12c, 12d) is arranged in the positive supply line and/or the negative supply line from each input, and at least one rectification element (16a, 16b, 16c, 16d) is arranged in the positive supply line and/or the negative supply line from each input, characterized in that the inputs can be connected in series via the inductors (12a, 12b, 12c, 12d) by means of two or more switching elements (14a, 14b, 14c, 14d), wherein in each case at least two of the inductors (12a, 12b, 12c, 12d) can be connected in parallel.
Equipment provided with means for receiving an extractable element including a casing carrying a plug-in connector and having at least one grounding surface, this equipment comprising a printed circuit (3; 3') carrying a device (10; 10') including a central body (11; 11') from which extend two parallel rails (15; 15') for slidably receiving side portions of the casing and a connector (12; 12') having prongs soldered to the printed circuit (3; 3') while being adapted to co-operate with the plug-in connector of the extractable element in the sliding direction, and at least one contact element that is fixed to the device and that is electrically conductive and adapted to be pressed against the grounding surface when the extractable element is being placed in the equipment, characterized in that the contact element comprises a fastener prong soldered to the printed circuit (3; 3') and a support having a fastening portion passing through a portion of one of the rails and two contact blades that face one another in this rail and that are elastically deformable to allow the casing to pass while being pressed against respective opposite sides thereof.
A wear sensor (200, 340, 640, 810B, 940), comprising: an electrical circuit (400, 610, 910, 912) comprising a sequence of discrete elements (210, 211, 212, 213, 214), each discrete element (210, 211, 212, 213, 214) Z is adapted to temporarily hold a digital data value, wherein the electrical circuit (400, 610, 910, 912) is configured to sequentially transfer the digital data value from a first discrete element on a first side (220, 341, 641) of the wear sensor (200, 340, 640, 810B, 940) to subsequent discrete elements (211, 212, 213, 214) toward a second side (230, 342, 642) of the wear sensor (200, 340, 640, 810B, 940), each discrete element (210, 211, 212, 213, 214) being configured to be electrically decoupled from the electrical circuit (400, 610, 910, 912), sequentially in a direction from the second side (230, 342, 642) to the first side (220, 341, 641), by action of wear on the wear sensor (200, 340, 640, 810B, 940), wherein Z the wear sensor (200, 340, 640, 810B, 940) is arranged such that a number of discrete elements (210, 211, 212, 213, 214) in the sequence is reduced when wear occurs on the wear sensor (200, 340, 640, 810B, 940) and the reduced number of discrete elements (210, 211, 212, 213, 214) indicates an amount of wear. an electrical circuit (400, 610, 910, 912) comprising a sequence of discrete elements (210, 211, 212, 213, 214), each discrete element (210, 211, 212, 213, 214) Z is adapted to temporarily hold a digital data value, wherein the electrical circuit (400, 610, 910, 912) is configured to sequentially transfer the digital data value from a first discrete element on a first side (220, 341, 641) of the wear sensor (200, 340, 640, 810B, 940) to subsequent discrete elements (211, 212, 213, 214) toward a second side (230, 342, 642) of the wear sensor (200, 340, 640, 810B, 940), each discrete element (210, 211, 212, 213, 214) being configured to be electrically decoupled from the electrical circuit (400, 610, 910, 912), sequentially in a direction from the second side (230, 342, 642) to the first side (220, 341, 641), by action of wear on the wear sensor (200, 340, 640, 810B, 940), wherein Z the wear sensor (200, 340, 640, 810B, 940) is arranged such that a number of discrete elements (210, 211, 212, 213, 214) in the sequence is reduced when wear occurs on the wear sensor (200, 340, 640, 810B, 940) and the reduced number of discrete elements (210, 211, 212, 213, 214) indicates an amount of wear.
A thermal ink jet ink composition comprising: one or more volatile organic solvents present in an amount 70% or more by weight of the ink composition, wherein the one or more volatile organic solvents are selected from C1-C4 alcohols, C4-C8 ethers, C3-C6 ketones, C3-C6 esters, and mixtures thereof; one or more solvent dyes that are soluble in the organic solvent or solvents with a solubility of at least 0.1 % by weight, a plasticizer, and one or more humectants, wherein the humectants are present in an amount from 1% to 30% by weight of the ink composition, wherein the thermal ink jet ink composition is free of tetrahydrofuran, binder resin, and water, and wherein the thermal ink jet ink composition has a decap time of at least 30 seconds when used in a thermal ink jet print head. one or more volatile organic solvents present in an amount 70% or more by weight of the ink composition, wherein the one or more volatile organic solvents are selected from C1-C4 alcohols, C4-C8 ethers, C3-C6 ketones, C3-C6 esters, and mixtures thereof; one or more solvent dyes that are soluble in the organic solvent or solvents with a solubility of at least 0.1 % by weight, a plasticizer, and one or more humectants, wherein the humectants are present in an amount from 1% to 30% by weight of the ink composition, wherein the thermal ink jet ink composition is free of tetrahydrofuran, binder resin, and water, and wherein the thermal ink jet ink composition has a decap time of at least 30 seconds when used in a thermal ink jet print head.
Method of producing a metallic strip or plate, in which the strip or plate is rolled in a multi-stand rolling mill and is delivered in conveying direction behind the last roll stand of the rolling mill, wherein the strip or plate is cooled in the multi-stand rolling mill and/or downstream of the rolling mill as seen in conveying direction, wherein a temperature of the strip or plate is measured upstream of the last roll stand of the rolling mill as seen in conveying direction, characterised by the steps of: (i) calculating a temperature for the strip or plate directly at the outlet of the last roll stand of the rolling mill by means of a temperature calculation model on the basis of the temperature, which is measured upstream of the last roll stand of the rolling mill, of the strip or plate, wherein this calculation step is carried out for a system formed by the material section of the strip or plate between the point, at which the temperature is measured upstream of the last roll stand, and the outlet of the last roll stand, (ii) comparing the temperature, which is calculated for the strip or plate at the outlet of the last roll stand of the rolling mill, with a predetermined reference value (TFM ref), and (iii) adapting through controlling, preferably through regulating, at least one process parameter for the strip or plate with consideration of the comparison of the calculated temperature with the predetermined reference value (TFMref) in accordance with step (ii), wherein the strip or plate is processed, heated or cooled depending on this process parameter. (i) calculating a temperature for the strip or plate directly at the outlet of the last roll stand of the rolling mill by means of a temperature calculation model on the basis of the temperature, which is measured upstream of the last roll stand of the rolling mill, of the strip or plate, wherein this calculation step is carried out for a system formed by the material section of the strip or plate between the point, at which the temperature is measured upstream of the last roll stand, and the outlet of the last roll stand, (ii) comparing the temperature, which is calculated for the strip or plate at the outlet of the last roll stand of the rolling mill, with a predetermined reference value (TFM ref), and (iii) adapting through controlling, preferably through regulating, at least one process parameter for the strip or plate with consideration of the comparison of the calculated temperature with the predetermined reference value (TFMref) in accordance with step (ii), wherein the strip or plate is processed, heated or cooled depending on this process parameter.
A method comprising: determining a preferred network interface, from among a plurality of network interfaces of a first network device, for receiving communications from a second network device of a communication network; determining an address associated with the preferred network interface of the first network device; and transmitting an address announcement message comprising an indication of the address associated with the preferred network interface from the first network device to the second network device. determining a preferred network interface, from among a plurality of network interfaces of a first network device, for receiving communications from a second network device of a communication network; determining an address associated with the preferred network interface of the first network device; and transmitting an address announcement message comprising an indication of the address associated with the preferred network interface from the first network device to the second network device.
A method, at a network node (20, 38), of allocating an enhanced control channel to a first wireless device, the method comprising: determining (S100, S106, S108, S110, S112, S114) a control channel subframe pattern for the first wireless device, the subframe pattern for the first wireless device identifying subframes in the subframe pattern during which the first wireless device is to monitor the enhanced control channel for downlink control information, the subframe pattern being based at least in part on enhanced control channel subframe utilization by other wireless devices; transmitting (S102, S114) the control channel subframe pattern to the first wireless device; and transmitting downlink control information to the first wireless device over the enhanced control channel according to the control channel subframe pattern, wherein determining (S100, S106, S108, S110, S112, S114) the control channel subframe pattern comprises determining a number of subframes in the subframe pattern during which the first wireless device is to monitor the enhanced control channel for downlink control information, and wherein the number of subframes in the subframe pattern during which the first wireless device is to monitor the enhanced control channel for downlink control information is based at least in part on a utilization ratio of radio resources available for a primary control channel. determining (S100, S106, S108, S110, S112, S114) a control channel subframe pattern for the first wireless device, the subframe pattern for the first wireless device identifying subframes in the subframe pattern during which the first wireless device is to monitor the enhanced control channel for downlink control information, the subframe pattern being based at least in part on enhanced control channel subframe utilization by other wireless devices; transmitting (S102, S114) the control channel subframe pattern to the first wireless device; and transmitting downlink control information to the first wireless device over the enhanced control channel according to the control channel subframe pattern, wherein determining (S100, S106, S108, S110, S112, S114) the control channel subframe pattern comprises determining a number of subframes in the subframe pattern during which the first wireless device is to monitor the enhanced control channel for downlink control information, and wherein the number of subframes in the subframe pattern during which the first wireless device is to monitor the enhanced control channel for downlink control information is based at least in part on a utilization ratio of radio resources available for a primary control channel.
A fastening structure of a fuel delivery pipe (2; 102) and a cylinder head (4; 104) of an internal combustion engine, the fastening structure characterized by comprising: three or more bosses (8, 10, 12, 14, 16, 20, 22, 24, 26, 28; 108, 110, 112, 114, 116, 120 and 128) provided on each of the cylinder head (4; 104) and the fuel delivery pipe (2; 102); a plurality of fastening portions formed by bolting the bosses on the cylinder head (4; 104) to the bosses on the fuel delivery pipe (2; 102); and ribs (8b, 10b, 12b, 14b, 16b; 110b, 112b, 114b) that reinforce the bosses (8, 10, 12, 14, 16; 110, 112, 114) provided on the fuel delivery pipe (2; 102), wherein the plurality of fastening portions are such that fastening portions positioned at both end portions of the fuel delivery pipe (2; 102) are less rigid than one or more fastening portions positioned in a middle between the fastening portions positioned at both end portions of the fuel delivery pipe (2; 102), wherein (a) ribs are provided on both end portions and in the middle of the fuel delivery pipe and the ribs (8b, 16b) positioned at both end portions of the fuel delivery pipe are thinner than one or more ribs (10b, 12b, 14b) positioned in the middle, or wherein (b) ribs (110b, 112b, 114b) are positioned in the middle of the fuel delivery pipe but no ribs are positioned at both end portions of the fuel delivery pipe. three or more bosses (8, 10, 12, 14, 16, 20, 22, 24, 26, 28; 108, 110, 112, 114, 116, 120 and 128) provided on each of the cylinder head (4; 104) and the fuel delivery pipe (2; 102); a plurality of fastening portions formed by bolting the bosses on the cylinder head (4; 104) to the bosses on the fuel delivery pipe (2; 102); and ribs (8b, 10b, 12b, 14b, 16b; 110b, 112b, 114b) that reinforce the bosses (8, 10, 12, 14, 16; 110, 112, 114) provided on the fuel delivery pipe (2; 102), wherein the plurality of fastening portions are such that fastening portions positioned at both end portions of the fuel delivery pipe (2; 102) are less rigid than one or more fastening portions positioned in a middle between the fastening portions positioned at both end portions of the fuel delivery pipe (2; 102), wherein (a) ribs are provided on both end portions and in the middle of the fuel delivery pipe and the ribs (8b, 16b) positioned at both end portions of the fuel delivery pipe are thinner than one or more ribs (10b, 12b, 14b) positioned in the middle, (a) ribs are provided on both end portions and in the middle of the fuel delivery pipe and the ribs (8b, 16b) positioned at both end portions of the fuel delivery pipe are thinner than one or more ribs (10b, 12b, 14b) positioned in the middle, or wherein (b) ribs (110b, 112b, 114b) are positioned in the middle of the fuel delivery pipe but no ribs are positioned at both end portions of the fuel delivery pipe. (b) ribs (110b, 112b, 114b) are positioned in the middle of the fuel delivery pipe but no ribs are positioned at both end portions of the fuel delivery pipe.
A container for receiving filling material, wherein the container is a plastic container, comprising a device for determining a quality property of filling material located in the container, wherein the device has the following: - a capacitor (10, 20) that is attached to the outer side of a container wall (101, 102) of the container and has a first electrode and a second electrode; - an electronic control apparatus which is electrically coupled to the first electrode and the second electrode; and - a display apparatus for displaying the quality property, wherein the display apparatus is data-coupled to the control apparatus for transmitting data from the control apparatus to the display apparatus, wherein the electronic control apparatus is designed to determine the quality property of the filling material based on electrical voltages applied to the capacitor (10, 20), and to transmit data representing the quality property of the filling material to the display apparatus, characterized in that the capacitor (10, 20) is arranged on a carrier element, wherein the carrier element has an adhesive layer which is designed such that the carrier element can be reversibly attached to the container wall. - a capacitor (10, 20) that is attached to the outer side of a container wall (101, 102) of the container and has a first electrode and a second electrode; - an electronic control apparatus which is electrically coupled to the first electrode and the second electrode; and - a display apparatus for displaying the quality property, wherein the display apparatus is data-coupled to the control apparatus for transmitting data from the control apparatus to the display apparatus,