mhurhangee/ep-ind-claims huggingface dataset:
A method for purifying a chlorine supply comprising a chlorine component, a bromine component, and nitrogen trichloride in a distillation system to form purified chlorine gas having less than 20 parts by weight of the bromine component per one million parts by weight of the purified chlorine gas and to form a distillate comprising liquid chlorine and the bromine component, wherein the distillation system is fluidly connected to a vaporizer and comprises a distillation tower that has an upper end and a lower end, a vertical axis extending through the upper and lower ends, and a vapor-liquid contact device to provide a vapor-liquid interface between a vapor and a condensate, a reflux condenser that is in fluid communication with the upper end of the distillation tower, disposed above the distillation tower, and that shares the vertical axis with the distillation tower, and wherein the distillation system also comprises a reboiler disposed below the distillation tower and in fluid communication with the lower end of the distillation tower, said method comprising the steps of: A. introducing the chlorine supply into the vaporizer; B. heating the chlorine supply to a temperature of from 50°C to 120°C in the vaporizer to form the vapor; C. introducing the vapor into the distillation system to provide purified chlorine gas, a distillate comprising the liquid chlorine and the bromine component, and a bottoms component including nitrogen trichloride; D. condensing the vapor in the reflux condenser to form the condensate which flows from the reflux condenser into the upper end of the distillation tower such that the condensate interacts with the vapor at vapor-liquid contact device thereby forming the purified chlorine gas and the distillate; E. heating the condensate in the reboiler; F. removing the purified chlorine gas from the distillation system; and G. removing the distillate from the distillation system. A. introducing the chlorine supply into the vaporizer; B. heating the chlorine supply to a temperature of from 50°C to 120°C in the vaporizer to form the vapor; C. introducing the vapor into the distillation system to provide purified chlorine gas, a distillate comprising the liquid chlorine and the bromine component, and a bottoms component including nitrogen trichloride; D. condensing the vapor in the reflux condenser to form the condensate which flows from the reflux condenser into the upper end of the distillation tower such that the condensate interacts with the vapor at vapor-liquid contact device thereby forming the purified chlorine gas and the distillate; E. heating the condensate in the reboiler; F. removing the purified chlorine gas from the distillation system; and G. removing the distillate from the distillation system.
An electronic or electromechanical system (10; 100) comprising at least one electrical energy source (12; 12 A, 12 B, 12 C, 12 D), a first circuit capable of operating in at least two operating modes, one of which corresponds to the stopping of the application circuit, and a circuit for transmitting the electrical energy from the energy source to the application circuit, the transmission circuit being further capable of determining a first value of the maximum instantaneous electric power capable of being supplied by the energy source, of determining a second value of the instantaneous electric power consumed by the application circuit in at least one of the operating modes, and of storing the first and second values or of selecting the operating mode of the application circuit from among said at least two operating modes based on the first and second values, wherein the transmission circuit comprises a voltage regulation circuit capable of receiving a first voltage (V eh) supplied by the energy source, or by a power conversion circuit interposed between the energy source and the transmission circuit, and capable of supplying a second voltage (V reg) regulated at a reference voltage (V ref) powering the first circuit, wherein the energy source is coupled to the transmission circuit by a first transmission line (L IN), wherein the transmission circuit is coupled to the application circuit by a second transmission line (L OUT), characterized in that the transmission circuit comprises a current sink circuit capable of drawing a first current (I test) of increasing intensity from the first transmission line and in that the transmission circuit comprises a circuit (DECT, 30) of determination of the maximum intensity (I in,max) of the first current (I test) for which the second voltage (V reg) is no longer regulated.
Refrigeration appliance, in particular a domestic refrigeration appliance, having at least one appliance door (1,3), the peripheral narrow face of which transitions at outer edges into the door inner face and into the appliance front and which has operating and display elements (16, 18), wherein the operating and display elements (16, 18) are grouped respectively in an operating field and in a display field and the operating field is disposed on the narrow door face, characterised in that the operating field and the display field are disposed in such a manner that they are separated spatially from one another by way of an outer edge on the narrow door face and on the appliance front respectively, wherein the display field is disposed on appliance front.
Sprocket assembly component comprising: at least one first toothed wheel configured to be the toothed wheel having the most teeth of the sprocket assembly, said first toothed wheel comprising an axially inner surface; a second toothed wheel having a smaller number of teeth than the number of teeth of the first toothed wheel, preferably a third toothed wheel having a smaller number of teeth than the number of teeth of the second toothed wheel, and a plurality of connection bodies that mechanically connect the first and the second toothed wheel axially spacing them, each connection body comprising a first connection portion; a supporting assembly that extends in the axial direction up to a free end arranged axially more internally with respect to the axially inner surface of the first toothed wheel; wherein said supporting assembly comprises a plurality of axial protuberances circumferentially spaced from one another, characterized in that the first connection portion secured to the first toothed wheel that extends radially towards the second toothed wheel; and said supporting assembly connected to said connection bodies, and said axial protuberances extending from said first connection portion and wherein the circumferential extension of each axial protuberance is equal to the circumferential extension of the first connection portion on which it is formed. at least one first toothed wheel configured to be the toothed wheel having the most teeth of the sprocket assembly, said first toothed wheel comprising an axially inner surface; a second toothed wheel having a smaller number of teeth than the number of teeth of the first toothed wheel, preferably a third toothed wheel having a smaller number of teeth than the number of teeth of the second toothed wheel, and a plurality of connection bodies that mechanically connect the first and the second toothed wheel axially spacing them, each connection body comprising a first connection portion; a supporting assembly that extends in the axial direction up to a free end arranged axially more internally with respect to the axially inner surface of the first toothed wheel; wherein said supporting assembly comprises a plurality of axial protuberances circumferentially spaced from one another, characterized in that the first connection portion secured to the first toothed wheel that extends radially towards the second toothed wheel; and said supporting assembly connected to said connection bodies, and said axial protuberances extending from said first connection portion and wherein the circumferential extension of each axial protuberance is equal to the circumferential extension of the first connection portion on which it is formed.
An optical communications network comprising: a first optical source configured, in use, to generate a first optical signal in a first wavelength region; a second optical source configured, in use, to generate a second optical signal in a second wavelength region; combining means to launch the first optical signal and the second optical signal into an optical fibre; and a separation means which can be configured, in use, to selectively route optical signals in the first wavelength region to a first output port and optical signals in the second wavelength region to a second output port characterised in that: i) the first optical signal comprises one or more non-coherent signals being transmitted at wavelengths associated with a predetermined wavelength grid; and ii) the second optical signal comprises one or more coherent optical signals. a first optical source configured, in use, to generate a first optical signal in a first wavelength region; a second optical source configured, in use, to generate a second optical signal in a second wavelength region; combining means to launch the first optical signal and the second optical signal into an optical fibre; and a separation means which can be configured, in use, to selectively route optical signals in the first wavelength region to a first output port and optical signals in the second wavelength region to a second output port characterised in that: i) the first optical signal comprises one or more non-coherent signals being transmitted at wavelengths associated with a predetermined wavelength grid; and ii) the second optical signal comprises one or more coherent optical signals. i) the first optical signal comprises one or more non-coherent signals being transmitted at wavelengths associated with a predetermined wavelength grid; and ii) the second optical signal comprises one or more coherent optical signals.
A method of calibrating a level sensor, the sensor comprising: - a tube delimiting an inner space, the tube being submerged in a volume of liquid, the inner space having a lower part communicating with the liquid volume through an opening arranged in the tube, the lower part being filled with the liquid, an upper part of the inner space not being filled with the liquid and being separated from the lower part by a free surface of the liquid; - a device for measuring the level of the free surface along the tube; the method comprising the following steps: - placing the upper part of the inner space at a predetermined pressure (P det); - acquiring the measured level (N mes) of the free surface measured by the measuring device; characterized in that the method further comprises the following steps: - computing a theoretical level (N th) of the free surface along the tube based on the determined pressure (P det); - comparing the theoretical level (N th) and the measured level (N mes); - repeating the steps for computing a theoretical level (N th), acquiring a measured level (N mes) and comparing the theoretical and measured levels after placing the upper part of the inner space at least at a second predetermined pressure. - a tube delimiting an inner space, the tube being submerged in a volume of liquid, the inner space having a lower part communicating with the liquid volume through an opening arranged in the tube, the lower part being filled with the liquid, an upper part of the inner space not being filled with the liquid and being separated from the lower part by a free surface of the liquid; - a device for measuring the level of the free surface along the tube; - placing the upper part of the inner space at a predetermined pressure (P det); - acquiring the measured level (N mes) of the free surface measured by the measuring device; - computing a theoretical level (N th) of the free surface along the tube based on the determined pressure (P det); - comparing the theoretical level (N th) and the measured level (N mes); - repeating the steps for computing a theoretical level (N th), acquiring a measured level (N mes) and comparing the theoretical and measured levels after placing the upper part of the inner space at least at a second predetermined pressure.
A system for applying light of a desired high intensity to teeth, the system comprising a light-generating unit, a light-patterning unit, a light projection unit, a mouth imaging unit, a mouth image sensing unit, and an image processing and control unit, wherein two or more of these units are optionally combined as a single component; the system being adapted so as to allow the image processing and control unit to adjust the light-patterning unit on the basis of information obtained from the mouth image sensing unit, prior to allowing the light-generating unit to emit light of the desired high intensity, characterized in that the light patterning unit comprises a spatial light modulator selected from the group consisting of digital light processing devices and liquid crystal devices, said unit being in communication with the image processing and control unit.
A lean duplex stainless steel having excellent in corrosion resistance and hot workability consisting of, in weight percentage (wt %), C: over 0 to 0.06 or less, Si: over 0 to 1.5% or less, Mn: over 0 to 2% or less, Cr: 19 to 23%, Ni: 1.8 to 3.5%, Mo: 0.5 to 1.0%, Cu: 0.3 to 1.0%, N: 0.16 to 0.30%, Al: 0.003 to 0.05%, B: 0.001 to 0.005%, Ca: 0.001 to 0.01%, P: 0.03% or less and S: 0.002% or less, wherein the content of O of the stainless steel is 0.01 % or less, and wherein the stainless steel has Fe and other unavoidable impurities as remnants.
A bank, comprising at least one storage module (100, 200), each storage module (100, 200) comprising: a read-write control circuit (101, 201), a column decoding circuit, and a plurality of storage arrays (104, 204) arranged along a first direction, the plurality of storage arrays (104, 204) being divided into at least one first unit (110, 210) and at least one second unit (120, 220), wherein each of the plurality of storage arrays (104, 204) comprises a memory array and a sense amplifier, SA, array, and each SA array is spaced from each memory array in the first direction; a first decoding selective signal line (CSL1, csll), the first decoding selective signal line (CSL1, csll) being electrically connected to the column decoding circuit and storage arrays (104, 204) in the first unit (110, 210); a second decoding selective signal line (CSL2, csl2), the second decoding selective signal line (CSL2, csl2) being electrically connected to the column decoding circuit and storage arrays (104, 204) in the second unit (120, 220); a first data signal line (YIO1, yio1), the first data signal line (YIO1, yio1) being electrically connected to the read-write control circuit (101, 201) and the storage arrays (104, 204) in the first unit (110, 210); and a second data signal line (YIO2, yio2), the second data signal line (YIO2, yio2) being electrically connected to the read-write control circuit (101, 201) and the storage arrays (104, 204) in the second unit (120, 220). a read-write control circuit (101, 201), a column decoding circuit, and a plurality of storage arrays (104, 204) arranged along a first direction, the plurality of storage arrays (104, 204) being divided into at least one first unit (110, 210) and at least one second unit (120, 220), wherein each of the plurality of storage arrays (104, 204) comprises a memory array and a sense amplifier, SA, array, and each SA array is spaced from each memory array in the first direction; a first decoding selective signal line (CSL1, csll), the first decoding selective signal line (CSL1, csll) being electrically connected to the column decoding circuit and storage arrays (104, 204) in the first unit (110, 210); a second decoding selective signal line (CSL2, csl2), the second decoding selective signal line (CSL2, csl2) being electrically connected to the column decoding circuit and storage arrays (104, 204) in the second unit (120, 220); a first data signal line (YIO1, yio1), the first data signal line (YIO1, yio1) being electrically connected to the read-write control circuit (101, 201) and the storage arrays (104, 204) in the first unit (110, 210); and a second data signal line (YIO2, yio2), the second data signal line (YIO2, yio2) being electrically connected to the read-write control circuit (101, 201) and the storage arrays (104, 204) in the second unit (120, 220).
A facility equipment management apparatus that performs communication with a facility equipment as an air conditioner and manages an operation of the facility equipment, the facility equipment management apparatus comprising: an image display unit; a display control unit that makes the image display unit display an image; an operation input unit that receives a user operation; a color palette database that stores a color palette that includes a plurality of pieces of display color data; a color palette construction unit that changes the plurality of pieces of display color data of the color palette based on color information designated on the operation input unit; and a component image database that stores component image data which indicates a display component; wherein the display control unit constructs color component image data, which is the component image data including display color data based on the component image data and the color, and makes the image display unit display the image formed by combining color component images based on color component image data, the color information designated on the operation input unit is information corresponding to a hue value, characterized in that the display control unit makes the image display unit display a color information setting screen, and the color information setting screen being configured to include: a sample image showing a color tone of a present image; the sample image is configured to present a sample of a tint of the image displayed in accordance with a present hue value; operation means (52,53) that increases or decreases the hue value so that the user can consequently set a desired tint while visually checking a final screen image. an image display unit; a display control unit that makes the image display unit display an image; an operation input unit that receives a user operation; a color palette database that stores a color palette that includes a plurality of pieces of display color data; a color palette construction unit that changes the plurality of pieces of display color data of the color palette based on color information designated on the operation input unit; and a component image database that stores component image data which indicates a display component; wherein the display control unit constructs color component image data, which is the component image data including display color data based on the component image data and the color, and makes the image display unit display the image formed by combining color component images based on color component image data, the color information designated on the operation input unit is information corresponding to a hue value, a sample image showing a color tone of a present image; the sample image is configured to present a sample of a tint of the image displayed in accordance with a present hue value; operation means (52,53) that increases or decreases the hue value so that the user can consequently set a desired tint while visually checking a final screen image.
Power distribution apparatus comprising: a first automatic transfer switch having a first power input, a second power input, a power output, and a transfer switch, wherein the transfer switch selectively connects either said first power input or said second power input to said power output, depending on a state of power at one or both said first and second power inputs: a first plug-in busway tap box enclosure (2600, 2700) for connecting electrically and mechanically said first power input to a first power busway (2610, 2710), wherein said first automatic transfer switch is incorporated into said first plug-in busway tap box enclosure, said first power busway comprising a linear portion of a power distribution topology of a data center that is installed parallel to a row of equipment racks; a power conduit (2606, 2706) that interfaces with said first plug-in busway tap box enclosure for connecting said second power input to a second power busway (2620, 2720); and a power supply cord for connecting said power output to an output load disposed in an equipment rack. a first plug-in busway tap box enclosure (2600, 2700) for connecting electrically and mechanically said first power input to a first power busway (2610, 2710), wherein said first automatic transfer switch is incorporated into said first plug-in busway tap box enclosure, said first power busway comprising a linear portion of a power distribution topology of a data center that is installed parallel to a row of equipment racks; a power conduit (2606, 2706) that interfaces with said first plug-in busway tap box enclosure for connecting said second power input to a second power busway (2620, 2720); and a power supply cord for connecting said power output to an output load disposed in an equipment rack.
An alternating donor-acceptor polymer comprising: a plurality of donor units comprising 3,4-alkylenedioxythiophenes substituted on the alkylene bridge, 3,4-dialkoxythiophenes, 3,6-dialkoxythieno[3,2- b] thiophenes, 3,5-dialkoxy-dithieno[3,2- b:2',3'- d] thiophenes or any combination thereof; and a plurality of acceptor units comprising benzo[c][1,2,5]thiadiazole, benzo[c][1,2,5]oxadiazole, quinoxaline, benzo[d][1,2,3]triazole, pyrido[3,4-b]pyrazine, cyanovinylene, thiazolo[5,4-d]thiazole, 1,3,4-thiadiazole, pyrrolo[3,4-c]pyrrole-1,4-dione, 2,2'-bithiazole, [1,2,5]thiadiazolo[3,4-c]pyridine, thieno[3,4-b]pyrazine, [1,2,5]oxadiazolo[3,4-c]pyridine, dicyanovinylene, benzo[1,2-c;4,5-c']bis[1,2,5]thiadiazole, [1,2,5]thiadiazolo[3,4-g]quinoxaline, 4-dicyanomethylenecyclopentadithiolene, benzo[c]thiophene or any derivative thereof, said acceptor units alternating with said donor units in one or more polymeric sequence of - n - where n is 4 to 200000 units, wherein said DA polymer displays a blue or green color in a neutral state and is transmissive in an oxidized state and wherein said DA Polymer is soluble in at least one solvent. a plurality of donor units comprising 3,4-alkylenedioxythiophenes substituted on the alkylene bridge, 3,4-dialkoxythiophenes, 3,6-dialkoxythieno[3,2- b] thiophenes, 3,5-dialkoxy-dithieno[3,2- b:2',3'- d] thiophenes or any combination thereof; and a plurality of acceptor units comprising benzo[c][1,2,5]thiadiazole, benzo[c][1,2,5]oxadiazole, quinoxaline, benzo[d][1,2,3]triazole, pyrido[3,4-b]pyrazine, cyanovinylene, thiazolo[5,4-d]thiazole, 1,3,4-thiadiazole, pyrrolo[3,4-c]pyrrole-1,4-dione, 2,2'-bithiazole, [1,2,5]thiadiazolo[3,4-c]pyridine, thieno[3,4-b]pyrazine, [1,2,5]oxadiazolo[3,4-c]pyridine, dicyanovinylene, benzo[1,2-c;4,5-c']bis[1,2,5]thiadiazole, [1,2,5]thiadiazolo[3,4-g]quinoxaline, 4-dicyanomethylenecyclopentadithiolene, benzo[c]thiophene or any derivative thereof, said acceptor units alternating with said donor units in one or more polymeric sequence of - n - where n is 4 to 200000 units, wherein said DA polymer displays a blue or green color in a neutral state and is transmissive in an oxidized state and wherein said DA Polymer is soluble in at least one solvent.
Stirring installation for stirring a liquid and/or a paste in a container, comprising an actuating means and comprising a stirring means (2, 8, 9) arranged inside the container comprising at least two blades, wherein the stirring means (2, 8, 9) is rotatably coupled to the actuating means by a coupling element, in such a way that the blades are movably attached with a first end to at least a bearing of the coupling element, wherein, during a rotation of the coupling element, the blades are pivotable around the bearing due to the influence of the centrifugal force, wherein the stirring means comprise additional liquid agitating means (8, 9) which are attached to a second end of at least one of the blades, characterized in that the liquid agitating means comprises at least a side chain with one free end.