mhurhangee/ep-ind-claims huggingface dataset:
A method for production of organic acid and/or alcohol comprising the steps of: a) providing a basic, aqueous medium containing carbon dioxide in the form of hydrogencarbonate-anions and/or carbonate-anions; b) feeding the basic, aqueous medium containing the carbon dioxide of step (a) into a bipolar membrane electrodialysis unit comprising an anode, a cathode, an ion-selective anion-exchange membrane, and two water-dissociating bipolar membranes, capable of providing for an acidic compartment between the water-dissociating bipolar membrane on the anode side and the ion-selective anion-exchange membrane and for a basic compartment between the water-dissociating bipolar membrane on the cathode side and the ion-selective anion-exchange membrane; c) transporting the carbon dioxide in the form of hydrogencarbonate-anions and/or carbonate-anions across the anion-exchange membrane from the basic compartment into the acidic compartment comprising an acidic, aqueous solution; d) contacting the carbon dioxide in the acidic, aqueous solution from step (c) and Z hydrogen with at least one acetogenic cell in an aqueous production medium under suitable conditions to produce at least one organic acid and/or alcohol from the carbon dioxide in the acidic, aqueous solution; and optionally e) recovering the organic acid and/or alcohol. a) providing a basic, aqueous medium containing carbon dioxide in the form of hydrogencarbonate-anions and/or carbonate-anions; b) feeding the basic, aqueous medium containing the carbon dioxide of step (a) into a bipolar membrane electrodialysis unit comprising an anode, a cathode, an ion-selective anion-exchange membrane, and two water-dissociating bipolar membranes, capable of providing for an acidic compartment between the water-dissociating bipolar membrane on the anode side and the ion-selective anion-exchange membrane and for a basic compartment between the water-dissociating bipolar membrane on the cathode side and the ion-selective anion-exchange membrane; an anode, a cathode, an ion-selective anion-exchange membrane, and two water-dissociating bipolar membranes, capable of providing for an acidic compartment between the water-dissociating bipolar membrane on the anode side and the ion-selective anion-exchange membrane and for a basic compartment between the water-dissociating bipolar membrane on the cathode side and the ion-selective anion-exchange membrane; c) transporting the carbon dioxide in the form of hydrogencarbonate-anions and/or carbonate-anions across the anion-exchange membrane from the basic compartment into the acidic compartment comprising an acidic, aqueous solution; d) contacting the carbon dioxide in the acidic, aqueous solution from step (c) and Z hydrogen with at least one acetogenic cell in an aqueous production medium under suitable conditions to produce at least one organic acid and/or alcohol from the carbon dioxide in the acidic, aqueous solution; and optionally e) recovering the organic acid and/or alcohol.
Security substrate for documents of value, such as a banknote, a cheque, a credit card or other payment card, an identity card or the like, which has a front and a back side, covers a given area when seen in plan view and has: - a first carrier film, which extends over at least 50% of the given area, - a substantially opaque layer, which is arranged on top of the first carrier film and covers at least 25%, preferably more than 50% and particularly preferably more than 75% of the given area, - a first print receiving layer arranged on top of the opaque layer, and - at least one relief structure (14, 15), which is arranged between the first opaque layer and the first carrier film and is provided with a reflection-increasing coating, which together with the relief structure or on its own has an optically variable effect, characterized in that at least a first coloured print element is applied to the first print receiving layer, and the first coloured print element is placed on top of the relief structure and the reflection-increasing coating at least in certain regions, so that the optically variable effect appears in a chromaticity influenced by the print element. - a first carrier film, which extends over at least 50% of the given area, - a substantially opaque layer, which is arranged on top of the first carrier film and covers at least 25%, preferably more than 50% and particularly preferably more than 75% of the given area, - a first print receiving layer arranged on top of the opaque layer, and - at least one relief structure (14, 15), which is arranged between the first opaque layer and the first carrier film and is provided with a reflection-increasing coating, which together with the relief structure or on its own has an optically variable effect, characterized in that at least a first coloured print element is applied to the first print receiving layer, and the first coloured print element is placed on top of the relief structure and the reflection-increasing coating at least in certain regions, so that the optically variable effect appears in a chromaticity influenced by the print element.
System for storage of ammonia gas and for its delivery to a consumption unit, the system comprising: - a plurality of ammonia gas storage cells each comprising: o a storage material capable of absorbing ammonia gas, o means for adjusting internal pressure of each cell independently of the other cells, comprising a heating means, - an output interface connecting the plurality of cells to the consumption unit, for output of ammonia gas from the cell when the internal pressure is higher than a downstream pressure, - a control device common to the plurality of cells capable of independently controlling the ammonia delivery activity from each cell to the output interface through means controlling means for adjusting the internal pressure of the plurality of cells, the system being characterised in that it also comprises: - a common inlet interface comprising a common inlet channel connecting the plurality of cells, the common channel being connectable to a filling means to fill in the cells in parallel during a filling operation, or - for each cell, an inlet interface connectable to a filling means to fill the cell independently of the other cells. - a plurality of ammonia gas storage cells each comprising: o a storage material capable of absorbing ammonia gas, o means for adjusting internal pressure of each cell independently of the other cells, comprising a heating means, o a storage material capable of absorbing ammonia gas, o means for adjusting internal pressure of each cell independently of the other cells, comprising a heating means, - an output interface connecting the plurality of cells to the consumption unit, for output of ammonia gas from the cell when the internal pressure is higher than a downstream pressure, - a control device common to the plurality of cells capable of independently controlling the ammonia delivery activity from each cell to the output interface through means controlling means for adjusting the internal pressure of the plurality of cells, - a common inlet interface comprising a common inlet channel connecting the plurality of cells, the common channel being connectable to a filling means to fill in the cells in parallel during a filling operation, or - for each cell, an inlet interface connectable to a filling means to fill the cell independently of the other cells.
A gymnastics springboard including an upper portion having a take-off face, a lower portion serving as a support of the springboard on the ground in the use position, the upper portion and the lower portion moving away from each other from an attachment area of the springboard where they are joined, said springboard further including a movable elastic device comprising a upper plate configured to slide on an inner face of the upper portion, a lower plate configured to slide on an inner face of the lower portion, and an elastic member interposed between the upper plate and the lower plate, the inner face of the upper portion and the inner face of the lower portion facing each other, said springboard being characterised in that it includes a system for moving the movable elastic device fastened to the lower plate or to the upper plate, said moving system including a driving wheel, a driven wheel and a flexible link configured to transmit a rotational movement from the driving wheel to the driven wheel, the upper plate or the lower plate being secured to the flexible link so that the rotation of the driving wheel causes sliding of the lower plate on the lower portion and of the upper plate on the upper portion.
Insert feeder for flat goods, comprising a receiving device with a stacking compartment for receiving the goods in the form of a stack, and an extracting device for extracting individual goods from the stack, wherein the stacking compartment exhibits a front bearing region on which the front edge of the stack comes to bear, and is equipped with guide elements (2, 8) for guiding and shaping the stack which comprise a stacking shoe which is arranged at the rear edge of the stack in order to guide the stack in the direction of the front bearing region, characterised in that at least one component of the guide elements (2, 8) and in particular the stacking shoe is coupled with a beating device which delivers a discrete blow to the respective component of the guide element (2, 8).
Polymer comprising n 1 mutually linked repeat units of the chemical structure or n 2 mutually linked repeat units of the chemical structure with where n 1 and n 2 are each independently an integer ≥ 4 and ≤ 5000, where m 1, m 2, m 3 are each independently an integer ≥ 0 and ≤ 5000, where the repeat units of the chemical structure within the polymer are the same or at least partly different from one another, where the repeat units of the chemical structure within the polymer are the same or at least partly different from one another, where the repeat units of the chemical structure within the polymer are joined to one another in such a way that the bond identified by "# #" in a particular repeat unit is joined by the bond identified by "#" in the adjacent repeat unit and the bond identified by "§ §" in a particular repeat unit is joined by the bond identified by "§" in the adjacent repeat unit, where the repeat units of the chemical structure within the polymer are joined to one another in such a way that the bond identified by "*" in a particular repeat unit is joined by the bond identified by "**" in the adjacent repeat unit, where the R 1, R 2, R 3, R 4 R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15, R 16, R 17, R 18, R 19, R 20, R 21, R 23, R 24, R 25, R 26, R 27, R 28, R 29, R 30 radicals are each independently selected from the group consisting of hydrogen, alkyl group having 1 to 30 carbon atoms, and where R 22 is an alkyl group having 1 to 30 carbon atoms, and where the R 11, R 13, R 15, R 17 radicals may each independently also be a group of the general structure with where the R 31, R 32, R 34, R 35 radicals are each independently selected from the group consisting of hydrogen, alkyl group having 1 to 30 carbon atoms, and where R 33 is an alkyl group having 1 to 30 carbon atoms, and where R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15, R 16, R 17, R 18, R 24, R 25, R 26, R 27, R 28, R 29, R 30 may each also be selected from the group consisting of nitro group, -CN, -F, -Cl, -Br, -I, -O-R 40 where R 40 is an alkyl group having 1 to 30 carbon atoms, and where B 1, B 2, B 3, B 4 are each independently selected from the group consisting of direct bond, &-(CH 2) p1 -&& where p1 is an integer from 1 to 4, and where at least one -CH 2 - group may also be replaced by - C(=O)-, &-(CH 2) r1 - B 5 -(CH 2) r2 -&& where B 5 is a (hetero) aromatic divalent 6-membered ring, 3-membered ring or 5-membered ring and r1, r2 are each 0 or 1, where r1 + r2 ≤ 1, &- (CH 2) q1 -B 6 -(CH 2) q2 -&& with B 6 = O, S, NH; q1 = 0, 1, 2 and q2 = 1, 2, 3 where q1 + q2 ≤ 3 and where one -CH 2 -group may also be replaced by -C(=O)-, &-O-C(=O)-NH-CH 2 -&&; and where "&&" for B 1 denotes the bond pointing toward the oxygen, for B 2 the bond pointing toward the oxygen, for B 3 the bond pointing toward the oxygen, and for B 4 the bond pointing toward the oxygen, and where "&" for B 1 denotes the bond pointing toward R 5, for B 2 the bond pointing toward R 8, for B 3 the bond pointing toward R 24, and for B 4 the bond pointing toward R 12 or R 14 or R 16 or R 18.
A method of selecting a Policy and Charging Rules Function, hereinafter PCRF, node of a Policy and Charging Control, hereinafter PCC, architecture, which comprises one or more PCRF nodes to be selectively contacted by one or more nodes of a core network, the method carried out at a network node, hereinafter current node, in a chain of nodes of the core network, wherein the current node is an intermediate or a final node preceded by a previous node in the chain of nodes, and the method comprises: - receiving (S-840, S-900, S-940) PCC deployment information from a previous node of the core network, wherein the PCC deployment information identifies one or more PCC interfaces that apply for a User Equipment, hereinafter UE, and, for each of the one or more PCC interfaces, the PCC deployment information identifies at least one node of the core network that requires to contact a PCRF node identified by a PCRF address; - determining (S-910, S-950) whether a PCRF node has to be contacted by the current node, based on the PCC deployment information; and - if it is determined that the PCRF node has to be contacted, initiating (S-920, S-960) a session with the PCRF node identified by a corresponding PCRF address. - receiving (S-840, S-900, S-940) PCC deployment information from a previous node of the core network, wherein the PCC deployment information identifies one or more PCC interfaces that apply for a User Equipment, hereinafter UE, and, for each of the one or more PCC interfaces, the PCC deployment information identifies at least one node of the core network that requires to contact a PCRF node identified by a PCRF address; - determining (S-910, S-950) whether a PCRF node has to be contacted by the current node, based on the PCC deployment information; and - if it is determined that the PCRF node has to be contacted, initiating (S-920, S-960) a session with the PCRF node identified by a corresponding PCRF address.
Process for manufacturing an electrochromic article comprising the following steps in succession: (a) depositing a layer of an electrochromic compound on the surface of a transparent or translucent electrically conductive substrate, said layer of electrochromic compound covering only one portion of the surface of said electrically conductive substrate and leaving at least one other portion of the latter free; (b) depositing a redox agent that is either a reducing agent or an oxidising agent of the electrochromic compound on the portion of the surface of the electrically conductive substrate not covered by the layer of electrochromic compound; (c) bringing the layer of electrochromic compound deposited in step (a) and the layer of redox agent deposited in step (b) into contact with a liquid electrolyte for enough time to allow the electrochromic compound to be reduced or oxidised by the redox agent; and (d) removing the electrolyte by rinsing and/or drying. (a) depositing a layer of an electrochromic compound on the surface of a transparent or translucent electrically conductive substrate, said layer of electrochromic compound covering only one portion of the surface of said electrically conductive substrate and leaving at least one other portion of the latter free; (b) depositing a redox agent that is either a reducing agent or an oxidising agent of the electrochromic compound on the portion of the surface of the electrically conductive substrate not covered by the layer of electrochromic compound; (c) bringing the layer of electrochromic compound deposited in step (a) and the layer of redox agent deposited in step (b) into contact with a liquid electrolyte for enough time to allow the electrochromic compound to be reduced or oxidised by the redox agent; and (d) removing the electrolyte by rinsing and/or drying.
An apparatus of an access point, AP, or a user equipment, UE, the apparatus comprising: a transceiver; and a plurality of antenna elements arranged in a rectangular array, wherein: respective groups of the plurality of antenna elements are each electrically energized as a plurality of respective concentric rings of phased antenna elements, each of the plurality of respective concentric rings of phased antenna elements being configured to receive a respective signal from the transceiver, each respective signal provides a continuously varying progressive phase between individual antenna elements of each of the respective concentric rings, each of the plurality of respective concentric rings of phased antenna elements is configured to generate a respective electromagnetic orbital angular momentum, OAM, beam, each of the respective electromagnetic OAM beams has a respective OAM mode, and the respective electromagnetic OAM beams are orthogonal to each other when generated. a transceiver; and a plurality of antenna elements arranged in a rectangular array, wherein: respective groups of the plurality of antenna elements are each electrically energized as a plurality of respective concentric rings of phased antenna elements, each of the plurality of respective concentric rings of phased antenna elements being configured to receive a respective signal from the transceiver, each respective signal provides a continuously varying progressive phase between individual antenna elements of each of the respective concentric rings, each of the plurality of respective concentric rings of phased antenna elements is configured to generate a respective electromagnetic orbital angular momentum, OAM, beam, each of the respective electromagnetic OAM beams has a respective OAM mode, and the respective electromagnetic OAM beams are orthogonal to each other when generated. respective groups of the plurality of antenna elements are each electrically energized as a plurality of respective concentric rings of phased antenna elements, each of the plurality of respective concentric rings of phased antenna elements being configured to receive a respective signal from the transceiver, each respective signal provides a continuously varying progressive phase between individual antenna elements of each of the respective concentric rings, each of the plurality of respective concentric rings of phased antenna elements is configured to generate a respective electromagnetic orbital angular momentum, OAM, beam, each of the respective electromagnetic OAM beams has a respective OAM mode, and the respective electromagnetic OAM beams are orthogonal to each other when generated.
An elevator comprising: at least one elevator car, an electric linear motor comprising at least one stator beam arranged in fixed manner with respect to and to extend along an elevator shaft of the elevator for moving the elevator car, and a movable maintenance robot system for providing maintenance and/or rescue operation to an elevator car of the elevator, wherein the movable maintenance robot system comprises: - a coupling interface for coupling a movable maintenance robot of the movable maintenance robot system with the elevator car to provide the maintenance and/or the rescue operation, wherein the coupling interface comprises a first part and a second part, wherein the first part is arranged to the movable maintenance robot and configured for coupling with the second part, the second part being coupled to the elevator car, and - the movable maintenance robot comprising at least one motor portion, wherein the at least one motor portion is configured for moving along at least one first motor portion is arranged in fixed manner with respect to and to extend along the elevator shaft, characterized in that the at least one first motor portion is a designated first motor portion and the movable maintenance robot is configured so that it can pass the elevator car along the designated first motor portion. at least one elevator car, an electric linear motor comprising at least one stator beam arranged in fixed manner with respect to and to extend along an elevator shaft of the elevator for moving the elevator car, and a movable maintenance robot system for providing maintenance and/or rescue operation to an elevator car of the elevator, wherein the movable maintenance robot system comprises: - a coupling interface for coupling a movable maintenance robot of the movable maintenance robot system with the elevator car to provide the maintenance and/or the rescue operation, wherein the coupling interface comprises a first part and a second part, wherein the first part is arranged to the movable maintenance robot and configured for coupling with the second part, the second part being coupled to the elevator car, and - the movable maintenance robot comprising at least one motor portion, wherein the at least one motor portion is configured for moving along at least one first motor portion is arranged in fixed manner with respect to and to extend along the elevator shaft, - a coupling interface for coupling a movable maintenance robot of the movable maintenance robot system with the elevator car to provide the maintenance and/or the rescue operation, wherein the coupling interface comprises a first part and a second part, wherein the first part is arranged to the movable maintenance robot and configured for coupling with the second part, the second part being coupled to the elevator car, and - the movable maintenance robot comprising at least one motor portion, wherein the at least one motor portion is configured for moving along at least one first motor portion is arranged in fixed manner with respect to and to extend along the elevator shaft,
Crystallizable lithium aluminium silicate glass for producing transparent glass-ceramics, characterized in that it comprises the following components (in wt% on an oxide basis): Li 2 O 3 - 5 Al 2 O 3 19 - 24 SiO 2 62 - 70 TiO 2 > 1.6 - 2.8 ZrO 2 1 - 2.5 MgO 0.01 - < 0.5 SnO 2 0.01 - < 0.15 with the following condition: (both in wt%): 0.005 < MgO × SnO 2 < 0.06 where the glass does not contain, apart from unavoidable impurities, any further colouring compounds, such as Ce, Cr, Ni, Cu, V, Mo, W and/or S, that lead to a yellow, orange or red colour. Li 2 O 3 - 5 Al 2 O 3 19 - 24 SiO 2 62 - 70 TiO 2 > 1.6 - 2.8 ZrO 2 1 - 2.5 MgO 0.01 - < 0.5 SnO 2 0.01 - < 0.15