mhurhangee/ep-ind-claims huggingface dataset:
A communication method performed by a main battery management unit (M 1), characterized in that the method comprises: determining, by the main BMU (M 1), from a plurality of managed units (So, S 1, S n) a first fault unit that communicates abnormally with the main BMU (M 1); transmitting, by the main BMU (M 1), to a backup BMU (M 2) a fault frequency at which the first fault unit communicates abnormally with the main BMU (M 1), wherein the fault frequency is used by the backup BMU (M 2) to transmit first frequency conversion information to the first fault unit through a first target unit, wherein the first frequency conversion information is to instruct the first fault unit to convert its frequency to a first frequency, wherein the first target unit is a managed unit selected by the backup BMU (M 2) from the plurality of managed units (So, S 1, S n) that communicates normally with both the backup BMU (M 2) and the first fault unit; and communicating, by the main BMU (M 1), with the first fault unit using the first frequency received from the backup BMU (M 2), wherein the first frequency is transmitted to the main BMU (M 1) by the backup BMU (M 2) under a condition that the backup BMU (M 2) communicates normally with the first fault unit using the first frequency. determining, by the main BMU (M 1), from a plurality of managed units (So, S 1, S n) a first fault unit that communicates abnormally with the main BMU (M 1); transmitting, by the main BMU (M 1), to a backup BMU (M 2) a fault frequency at which the first fault unit communicates abnormally with the main BMU (M 1), wherein the fault frequency is used by the backup BMU (M 2) to transmit first frequency conversion information to the first fault unit through a first target unit, wherein the first frequency conversion information is to instruct the first fault unit to convert its frequency to a first frequency, wherein the first target unit is a managed unit selected by the backup BMU (M 2) from the plurality of managed units (So, S 1, S n) that communicates normally with both the backup BMU (M 2) and the first fault unit; and communicating, by the main BMU (M 1), with the first fault unit using the first frequency received from the backup BMU (M 2), wherein the first frequency is transmitted to the main BMU (M 1) by the backup BMU (M 2) under a condition that the backup BMU (M 2) communicates normally with the first fault unit using the first frequency.
Vehicle - with a ball which can roll in any direction on a base, - with at least three motors, the drive axles of which are aligned in different directions, - with at least one basis on which a vehicle operator can position himself and on which the motors are fastened, wherein at the basis an advance orientation of the vehicle is fixed, - with a control unit with which the motors can be controlled, and - with a system, with which the vehicle operator can select the drive direction of the vehicle independently of the advance orientation of the vehicle, wherein the system is connected with the control unit for the exchange of information, characterised in that the vehicle has a controlling means with which the advance orientation of the vehicle can be adjusted and which is connected with the control unit for the exchange of information, that the vehicle has a holding means which protrudes from the basis and which a vehicle operator can hold onto, and that the control means is mounted on the holding means. - with a ball which can roll in any direction on a base, - with at least three motors, the drive axles of which are aligned in different directions, - with at least one basis on which a vehicle operator can position himself and on which the motors are fastened, wherein at the basis an advance orientation of the vehicle is fixed, - with a control unit with which the motors can be controlled, and - with a system, with which the vehicle operator can select the drive direction of the vehicle independently of the advance orientation of the vehicle, wherein the system is connected with the control unit for the exchange of information,
A shielded electrical cable (2, 102, 202, 302, 402, 502, 602, 702, 802, 902, 1002, 1102, 1202, 1302, 1402, 1502, 1602) comprising: first and second end portions disposed at terminating ends of the shielded electrical cable; a plurality of spaced apart conductor sets (4, 104, 204, 304, 404, 804, 904, 1004, 1104, 1204, 1304, 1404, 1504, 1604), each conductor set including one or more substantially parallel longitudinal insulated conductors (6, 106, 206, 306, 406, 806, 906, 1006, 1106, 1206, 1306, 1406, 1506, 1606), at least one conductor set of the plurality of spaced apart conductor sets including two or more substantially parallel longitudinal insulated conductors; at least one longitudinal ground conductor (12, 112, 1212, 1312, 1412, 1612) extending in substantially the same direction as the insulated conductors; two generally parallel shielding films (8, 108, 508, 808, 908, 1008, 1108, 1208, 1308, 1408, 1508, 1608) disposed around the conductor sets and the at least one longitudinal ground conductor; a conformable adhesive layer (10, 110, 510, 810, 910, 1010, 1110, 1210, 1310, 1410, 1510, 1610) disposed between the shielding films and bonding the shielding films to each other on both sides of each conductor set; and a plurality of longitudinal splits disposed between and separating the conductor sets, wherein the plurality of longitudinal splits do not extend into either end portion of the shielded electrical cable. first and second end portions disposed at terminating ends of the shielded electrical cable; a plurality of spaced apart conductor sets (4, 104, 204, 304, 404, 804, 904, 1004, 1104, 1204, 1304, 1404, 1504, 1604), each conductor set including one or more substantially parallel longitudinal insulated conductors (6, 106, 206, 306, 406, 806, 906, 1006, 1106, 1206, 1306, 1406, 1506, 1606), at least one conductor set of the plurality of spaced apart conductor sets including two or more substantially parallel longitudinal insulated conductors; at least one longitudinal ground conductor (12, 112, 1212, 1312, 1412, 1612) extending in substantially the same direction as the insulated conductors; two generally parallel shielding films (8, 108, 508, 808, 908, 1008, 1108, 1208, 1308, 1408, 1508, 1608) disposed around the conductor sets and the at least one longitudinal ground conductor; a conformable adhesive layer (10, 110, 510, 810, 910, 1010, 1110, 1210, 1310, 1410, 1510, 1610) disposed between the shielding films and bonding the shielding films to each other on both sides of each conductor set; and a plurality of longitudinal splits disposed between and separating the conductor sets, wherein the plurality of longitudinal splits do not extend into either end portion of the shielded electrical cable.
A method for treating a steam condensate generated by a high-pressure regenerator operating at a pressure ranging from 1.0 to 1.2 kg/cm 2 for regenerating a carbon dioxide absorption solution comprising the steps of: a) capturing carbon dioxide in a carbon dioxide absorption unit using a carbon dioxide absorption solution; b) feeding the carbon dioxide absorption solution comprising absorbed carbon dioxide and generated in step a) to the high-pressure regenerator of a heat exchange system comprising the high-pressure regenerator comprising the solution to be regenerated and a steam-fired reboiler; and c) supplying low-pressure steam at a pressure ranging from 3.2 to 3.5 kg/cm 2 to a steam-fired reboiler for supplying heat to the high-pressure regenerator, wherein, in the steam-fired reboiler, by the exchange of the heat of the steam with the carbon dioxide absorption solution comprising absorbed carbon dioxide, the carbon dioxide absorption solution comprising absorbed carbon dioxide is heated, thereby producing a steam condensate and a regenerated carbon dioxide absorption solution; wherein the regenerated carbon dioxide absorption solution exiting the high-pressure regenerator is further treated in a low-pressure regenerator operating at a pressure below 0.2 kg/cm 2; wherein the method further comprises the step of: d) directly supplying the steam condensate produced in step c) to the de-aerator, thereby producing an aqueous solution suitable for producing steam with an oxygen content lower than 20 ppb. a) capturing carbon dioxide in a carbon dioxide absorption unit using a carbon dioxide absorption solution; b) feeding the carbon dioxide absorption solution comprising absorbed carbon dioxide and generated in step a) to the high-pressure regenerator of a heat exchange system comprising the high-pressure regenerator comprising the solution to be regenerated and a steam-fired reboiler; and c) supplying low-pressure steam at a pressure ranging from 3.2 to 3.5 kg/cm 2 to a steam-fired reboiler for supplying heat to the high-pressure regenerator, wherein, in the steam-fired reboiler, by the exchange of the heat of the steam with the carbon dioxide absorption solution comprising absorbed carbon dioxide, the carbon dioxide absorption solution comprising absorbed carbon dioxide is heated, thereby producing a steam condensate and a regenerated carbon dioxide absorption solution; wherein the regenerated carbon dioxide absorption solution exiting the high-pressure regenerator is further treated in a low-pressure regenerator operating at a pressure below 0.2 kg/cm 2;
A method for generating a desired light pattern in an image plane, comprising establishing a correspondence between a parameterization of boundaries of source regions on a dynamically reconfigurable phase retarding modulator (56, 66), the source regions represented by a first grid of points, and a parameterization of boundaries of corresponding display regions in the image plane, the display regions represented by a second grid of points; determining from image data desired optical power densities for the display regions; adjusting (101A, 101B) the parameterization of the boundaries of one or both of the source regions and the display regions using the image data to achieve a distribution of power densities in the display regions corresponding to the image data; determining path lengths corresponding to pairs of corresponding ones of the points in the first and second grids of points; calculating the pattern of phase shifts for the phase retarding modulator on a source region-by-source region basis according to the path lengths; and controlling the phase retarding modulator (56, 66) to provide a pattern of phase shifts operative to redistribute light from each of the source regions of the phase retarding modulator to a corresponding one of the display regions; wherein: adjusting the parameterization of the boundaries of one or both of the source regions and the display regions comprises: varying the areas of the source regions and/or of the display regions; and executing an optimization algorithm comprising: a cost function term that penalizes curl in a field of points defining the source regions and/or a cost function term that penalizes lack of smoothness of the pattern of phase shifts, to find boundaries for the source regions and/or the corresponding display regions; such that ratios of the areas of the source regions to the corresponding display regions provide a best match to desired optical power densities for the source regions. varying the areas of the source regions and/or of the display regions; and executing an optimization algorithm comprising: a cost function term that penalizes curl in a field of points defining the source regions and/or a cost function term that penalizes lack of smoothness of the pattern of phase shifts, to find boundaries for the source regions and/or the corresponding display regions; such that ratios of the areas of the source regions to the corresponding display regions provide a best match to desired optical power densities for the source regions.
A lipocalin mutein that is capable of binding LAG-3 with detectable affinity, wherein the amino acid sequence of the mutein comprises at least 14 of the following mutated amino acid residues in comparison with the linear polypeptide sequence of mature human tear lipocalin (SEQ ID NO: 1): Ser 14 → Pro; Asp 25 → Ser; Arg 26 → Ser, Phe, Gly, Ala, Asp, or Glu; Glu 27 → Asp, Val, or Thr; Phe 28 → Cys or Asp; Pro 29 → Phe, Leu, or Trp; Glu 30 → Trp, Asn, or Tyr; Met 31 → Ile, Val, Asp, Leu, or Tyr; Asn 32 → Asp, Glu, Tyr, Trp, Val, Thr, or Met; Leu 33 → Asp, Glu, or Pro; Glu 34 → Val, Trp, or His; Val 36 → Ala; Asn 48 → Asp; Lys 52 → Glu, Ser, Arg, or Asn; Val 53 → Ala; Met 55 → Ala or Val; Leu 56 → Asp, Gin, or Asn; Ile 57 → Leu; Ser 58 → Phe, Trp, or Asp; Arg 60 → Phe or Glu; Cys 61 → Pro, Leu, or Trp; Ala 66 → Asn; Ala 79 → Glu; Val 85 → Ala; Ala 86 → Asp; Cys 101 → Ser or Phe; Glu 104 → Tyr; Leu 105 → Cys or Gly; His 106 → Ala, Glu, Thr, Tyr, Gln, or Val; Lys 108 → Tyr, Phe, Thr, or Trp; Val 110 → Gly or Ala; Arg 111 → Pro; Gly 112 → Met or Thr; Lys 114 → Trp or Ala; Lys 121 → Thr; Ser 140 → Gly; and Cys 153 → Ser, wherein the mutein has at least 85% sequence identity to an amino acid sequence selected from the group consisting of SEQ ID NOs: 7-22.
Assembly including a substrate comprising a printed motif produced with a wet viscous lacquer, glitter capable of being electrically charged and a recovery system for glitter capable of being electrically charged, deposited uniformly and not adhering to the substrate, characterised in that the recovery system comprises: - two electrostatic devices (20, 21) each containing at least one conductive surface (200, 210), placed opposite and on either side of an insulating substrate covered with glitter, the electrostatic device opposite the surface of the substrate never coming into contact with said substrate, - at least one charging device ensuring the generation of at least one variable electric potential on each conductive surface (200, 210), in such a way that the opposed surfaces on either side of the substrate, substantially in the plane of the substrate, create alternation of the electrical polarity of at least the same zone of the substrate and/or of the glitter deposited on this zone of the substrate, - at least one device for cleaning at least one conductive surface of the electrostatic device, in relative displacement in relation to the electrostatic device, - at least one recovery tank for the glitter sensitive to electrical fields which has adhered to the conductive surfaces of the electrostatic device opposite the treated surface of the substrate. - two electrostatic devices (20, 21) each containing at least one conductive surface (200, 210), placed opposite and on either side of an insulating substrate covered with glitter, the electrostatic device opposite the surface of the substrate never coming into contact with said substrate, - at least one charging device ensuring the generation of at least one variable electric potential on each conductive surface (200, 210), in such a way that the opposed surfaces on either side of the substrate, substantially in the plane of the substrate, create alternation of the electrical polarity of at least the same zone of the substrate and/or of the glitter deposited on this zone of the substrate, - at least one device for cleaning at least one conductive surface of the electrostatic device, in relative displacement in relation to the electrostatic device, - at least one recovery tank for the glitter sensitive to electrical fields which has adhered to the conductive surfaces of the electrostatic device opposite the treated surface of the substrate.
A method comprising: receiving, at an apparatus (200, 902), an indication of a disparity range (SIP n D) of an object scene from each of two or more stereoscopic imaging viewpoint pairs (SIVP n), wherein the disparity range of the object scene relates to a difference in disparities (SIP n D max - SIP n D min) of a closest object and a furthest object in the object scene; receiving an indication of a disparity constraint of a stereoscopic display, wherein the indication of the disparity constraint of the stereoscopic display comprises an indication of a maximum disparity range of the stereoscopic display; selecting, at the apparatus (200, 902), a stereoscopic imaging viewpoint pair (SIVP x) whose disparity range is the largest and whose disparity range is less than the maximum disparity range of the stereoscopic display; and following selection of the selected stereoscopic imaging viewpoint pair (SIVP x), receiving, at the apparatus (200, 902), at least one image captured from each imaging viewpoint (IV 1, IV 2) of the selected stereoscopic imaging viewpoint pair (SIVP x). receiving, at an apparatus (200, 902), an indication of a disparity range (SIP n D) of an object scene from each of two or more stereoscopic imaging viewpoint pairs (SIVP n), wherein the disparity range of the object scene relates to a difference in disparities (SIP n D max - SIP n D min) of a closest object and a furthest object in the object scene; receiving an indication of a disparity constraint of a stereoscopic display, wherein the indication of the disparity constraint of the stereoscopic display comprises an indication of a maximum disparity range of the stereoscopic display; selecting, at the apparatus (200, 902), a stereoscopic imaging viewpoint pair (SIVP x) whose disparity range is the largest and whose disparity range is less than the maximum disparity range of the stereoscopic display; and following selection of the selected stereoscopic imaging viewpoint pair (SIVP x), receiving, at the apparatus (200, 902), at least one image captured from each imaging viewpoint (IV 1, IV 2) of the selected stereoscopic imaging viewpoint pair (SIVP x).
A system for reconstituting drugs in a plurality of drug containers, each drug container (130, 132) of the plurality of drug containers including an adapter, the system comprising: a transfer device comprising a multi-port manifold and a connector suitable to be removably attached to the adapter of each drug container of the plurality of drug containers, said transfer device further comprising: a first conduit to transfer a liquid from an inlet port of said manifold through said connector and into each drug container, and a second conduit to transfer a gaseous fluid from inside each drug container through said connector and said manifold to an outlet port of said manifold; a liquid transporting tube connected to said inlet port for transporting a liquid to the transfer device; characterised in that the system further comprises, a gas transporting tube connected to said outlet port for transporting said gaseous fluid from each drug container away from said transfer device; a gas collection container to collect said gaseous fluid from each drug container; and a dual check valve with three ports operable to allow unidirectional liquid flow from a first port to a second port, and from said second port to a third port, wherein the third port is connected to the liquid transporting tube. a transfer device comprising a multi-port manifold and a connector suitable to be removably attached to the adapter of each drug container of the plurality of drug containers, said transfer device further comprising: a first conduit to transfer a liquid from an inlet port of said manifold through said connector and into each drug container, and a second conduit to transfer a gaseous fluid from inside each drug container through said connector and said manifold to an outlet port of said manifold; a first conduit to transfer a liquid from an inlet port of said manifold through said connector and into each drug container, and a second conduit to transfer a gaseous fluid from inside each drug container through said connector and said manifold to an outlet port of said manifold; a liquid transporting tube connected to said inlet port for transporting a liquid to the transfer device; characterised in that the system further comprises, a gas transporting tube connected to said outlet port for transporting said gaseous fluid from each drug container away from said transfer device; a gas collection container to collect said gaseous fluid from each drug container; and a dual check valve with three ports operable to allow unidirectional liquid flow from a first port to a second port, and from said second port to a third port, wherein the third port is connected to the liquid transporting tube.
A duct or shaft assembly for providing a fire protection to ventilation, smoke-extraction, or wiring- ducts or shafts and the like, said duct or shaft assembly having sidewalls comprising at least two gypsum plaster plates (101, 102, 103, 104) fastened by means of at least one fastener that extends and passes through the thickness of at least one of said gypsum plaster plates (101, 102, 103, 104) and fixedly enters into the second gypsum plaster plate, characterized in that said at least two gypsum plaster plates (101, 102, 1 03, 1 04) are made of a substantially uniform mixture comprising: - At least 50w% of gypsum (CaSO4 · 2H2O), or bassanite (2CaSO4 · H2O), or calcium sulphide (CaS), or a mixture thereof; - between 0w% - 15w% fire retardant; - between 0w% - 15w% fibres; and - 20v%-50v%, preferably 30v%-40v% air cavities. - At least 50w% of gypsum (CaSO4 · 2H2O), or bassanite (2CaSO4 · H2O), or calcium sulphide (CaS), or a mixture thereof; - between 0w% - 15w% fire retardant; - between 0w% - 15w% fibres; and - 20v%-50v%, preferably 30v%-40v% air cavities.
An immobilized enzyme reactor (IMER) preserving optimum enzyme thermal stability and activity at protein denaturing conditions, wherein said IMER comprises the following components: a) at least one enzyme; and b) an extended hydrophilic polymer coating immobilizing said enzyme to a supporting material, wherein said extended hydrophilic polymer is: sized to be precluded from the interior structure of said enzyme; and making at least one hydrophilic modification to said enzyme's exterior residues, wherein the interior of the enzyme is made more hydrophobic through the use of a hydrophobic modifier sized to penetrate said enzyme and making at least one modification to said enzyme's interior residue. a) at least one enzyme; and b) an extended hydrophilic polymer coating immobilizing said enzyme to a supporting material, wherein said extended hydrophilic polymer is: sized to be precluded from the interior structure of said enzyme; and making at least one hydrophilic modification to said enzyme's exterior residues, wherein the interior of the enzyme is made more hydrophobic through the use of a hydrophobic modifier sized to penetrate said enzyme and making at least one modification to said enzyme's interior residue. sized to be precluded from the interior structure of said enzyme; and making at least one hydrophilic modification to said enzyme's exterior residues, wherein the interior of the enzyme is made more hydrophobic through the use of a hydrophobic modifier sized to penetrate said enzyme and making at least one modification to said enzyme's interior residue.