mhurhangee/ep-ind-claims huggingface dataset:
Process for the production of three-dimensional, self-supporting and/or substrate-supported formed pieces or of structures on surfaces by means of a site-selective solidification of a liquid to pasty, organic or organically modified material within a bath of this material by means of two-photon or multiphoton polymerization, wherein the material comprises at least one compound, which has both an organic radical polymerizable via two-photon or multiphoton polymerization and a biocompatible, biodegradable or bioresorbable group, and/or wherein the bath material additionally contains groups or radicals that are accessible for an inorganic crosslinking or are already inorganically crosslinked, provided that both an organic radical polymerizable via two-photon or multiphoton polymerization and a biocompatible, biodegradable or bioresorbable group must be contained in the material.
A bonding device for transmission of a plurality of data packets (101, 102, 103, 104), the bonding device comprising: a plurality of access links for transmission of the plurality of data packets (101, 102, 103, 104); a processor comprising a scheduling module, configured to schedule a distribution of the plurality of data packets (101, 102, 103, 104) over the plurality of access links according to a scheduling scheme, wherein the processor is configured to provide the scheduling scheme based on determining which of the access links (211, 212, 213) to select for transmission, whether to send duplications (101a, 101b, 101c, 101d) of a data packet (101, 102, 103, 104) over each of the selected access links (211, 212, 213) and how many duplications to send over the selected access links and further which delay to apply for data packets (101, 102, 103, 104) sent over the selected access links (211, 212, 213). a plurality of access links for transmission of the plurality of data packets (101, 102, 103, 104); a processor comprising a scheduling module, configured to schedule a distribution of the plurality of data packets (101, 102, 103, 104) over the plurality of access links according to a scheduling scheme, wherein the processor is configured to provide the scheduling scheme based on determining which of the access links (211, 212, 213) to select for transmission, whether to send duplications (101a, 101b, 101c, 101d) of a data packet (101, 102, 103, 104) over each of the selected access links (211, 212, 213) and how many duplications to send over the selected access links and further which delay to apply for data packets (101, 102, 103, 104) sent over the selected access links (211, 212, 213).
A rail system for providing one or more removal edges and/or removal surfaces for plastering a building wall, said rail system comprising at least one rail, which extends along a rail axis and which has a connection structure at a rear side facing perpendicular to the rail axis and a removal edge and/or a removal surface at a front side opposite said rear side, and at least two setting elements which each extend along a setting element axis from a fastening section to a connection section and which are configured to be fastened, on the one hand, with their respective fastening section, in particular with the setting element axis oriented perpendicular to the building wall, to the building wall and, on the other hand, to be connected with their respective connection section to the connection structure of the rail so that said setting elements hold the rail spaced apart from the building wall and with the rail axis at least substantially in parallel with the building wall, characterized in that the connection section comprises at least a first connection structure complementary to the connection structure of the rail and a second connection structure complementary to the connection structure of the rail, wherein the rail, when its connection structure is connected to the first complementary connection structure of the connection section of the respective setting element, assumes a different position along the setting element axis of the respective setting element than when it is connected to the second complementary connection structure of the connection section of the respective setting element. at least one rail, which extends along a rail axis and which has a connection structure at a rear side facing perpendicular to the rail axis and a removal edge and/or a removal surface at a front side opposite said rear side, and at least two setting elements which each extend along a setting element axis from a fastening section to a connection section and which are configured to be fastened, on the one hand, with their respective fastening section, in particular with the setting element axis oriented perpendicular to the building wall, to the building wall and, on the other hand, to be connected with their respective connection section to the connection structure of the rail so that said setting elements hold the rail spaced apart from the building wall and with the rail axis at least substantially in parallel with the building wall, characterized in that the connection section comprises at least a first connection structure complementary to the connection structure of the rail and a second connection structure complementary to the connection structure of the rail, wherein the rail, when its connection structure is connected to the first complementary connection structure of the connection section of the respective setting element, assumes a different position along the setting element axis of the respective setting element than when it is connected to the second complementary connection structure of the connection section of the respective setting element.
Outlet basin for a closed or semi-closed aquaculture pen comprising: a closable central outlet duct for fish; a sludge removal system, wherein - the outlet basin comprises a funnel with a wide upper opening and a narrow lower opening in fluid communication with the outlet duct for fish, - the sludge removal system comprises a circumferential channel covered by a mesh for preventing fish from passing into the channel and having at least one sludge port for the removal of sludge; wherein the basin further comprises - attachment means for coupling the outlet basin to the bottom portion of the pen along the outer edge of the channel; and - a main water outlet is arranged in the funnel sidewall as one or more apertures covered by a fish grid to prevent fish from passing through. a closable central outlet duct for fish; a sludge removal system, wherein - the outlet basin comprises a funnel with a wide upper opening and a narrow lower opening in fluid communication with the outlet duct for fish, - the sludge removal system comprises a circumferential channel covered by a mesh for preventing fish from passing into the channel and having at least one sludge port for the removal of sludge; wherein the basin further comprises - attachment means for coupling the outlet basin to the bottom portion of the pen along the outer edge of the channel; and - a main water outlet is arranged in the funnel sidewall as one or more apertures covered by a fish grid to prevent fish from passing through. - the outlet basin comprises a funnel with a wide upper opening and a narrow lower opening in fluid communication with the outlet duct for fish, - the sludge removal system comprises a circumferential channel covered by a mesh for preventing fish from passing into the channel and having at least one sludge port for the removal of sludge; - attachment means for coupling the outlet basin to the bottom portion of the pen along the outer edge of the channel; and - a main water outlet is arranged in the funnel sidewall as one or more apertures covered by a fish grid to prevent fish from passing through.
A process to treat a hydrogen sulphide and mercaptans comprising gas comprising the following steps: (a) contacting the hydrogen sulphide and mercaptans comprising gas with an aqueous solution comprising sulphide-oxidising bacteria thereby obtaining a loaded aqueous solution comprising bisulphide and mercaptan compounds and sulphide-oxidising bacteria and a gas having a lower content of hydrogen sulphide and mercaptans, (b) contacting the loaded aqueous solution with a mercaptan reducing microorganism under anaerobic conditions wherein bisulphide is converted to elemental sulphur and mercaptans are converted to hydrocarbons and hydrogen sulphide, (c) separating the aqueous solution obtained in step (b) from the mercaptan reducing microorganisms to obtain a first liquid effluent, (d) contacting the first liquid effluent with an oxidant to regenerate the sulphide-oxidising bacteria to obtain a second liquid effluent (12,3) comprising regenerated sulphide-oxidising bacteria, wherein the sulphide-oxidising bacteria as present in step (a) are comprised of regenerated sulphide-oxidising bacteria obtained in step (d). (a) contacting the hydrogen sulphide and mercaptans comprising gas with an aqueous solution comprising sulphide-oxidising bacteria thereby obtaining a loaded aqueous solution comprising bisulphide and mercaptan compounds and sulphide-oxidising bacteria and a gas having a lower content of hydrogen sulphide and mercaptans, (b) contacting the loaded aqueous solution with a mercaptan reducing microorganism under anaerobic conditions wherein bisulphide is converted to elemental sulphur and mercaptans are converted to hydrocarbons and hydrogen sulphide, (c) separating the aqueous solution obtained in step (b) from the mercaptan reducing microorganisms to obtain a first liquid effluent, (d) contacting the first liquid effluent with an oxidant to regenerate the sulphide-oxidising bacteria to obtain a second liquid effluent (12,3) comprising regenerated sulphide-oxidising bacteria, wherein the sulphide-oxidising bacteria as present in step (a) are comprised of regenerated sulphide-oxidising bacteria obtained in step (d).
Method for the preparation of synthesis gas comprising the steps of (a) separating atmospheric air into a separate oxygen containing stream and into a separate nitrogen containing stream; (b) preparing a separate hydrogen containing stream and a separate oxygen containing stream by electrolysis of water and/or steam; partial oxidizing or autothermal reforming in an autothermal reformer at least a part of a hydrocarbon feed stock with at least a part of the oxygen containing stream obtained by the separation of atmospheric air in step (a) and at least a part of the oxygen containing stream obtained by the electrolysis of water and/or steam in step (b) to a process gas comprising hydrogen, carbon monoxide and carbon dioxide; and (d) introducing at least part of the separate hydrogen containing stream from step (b) into the process gas from step wherein the electrolysis is operated such that all of the separate hydrogen containing stream produced in step (b) is added to the process gas from step and the module M, where M=(H2-CO2)/(CO+CO2), of the resulting mixture of hydrogen and the process gas from step is between 1.9 and 2.2 or preferably between 2 and 2.1. (a) separating atmospheric air into a separate oxygen containing stream and into a separate nitrogen containing stream; (b) preparing a separate hydrogen containing stream and a separate oxygen containing stream by electrolysis of water and/or steam; partial oxidizing or autothermal reforming in an autothermal reformer at least a part of a hydrocarbon feed stock with at least a part of the oxygen containing stream obtained by the separation of atmospheric air in step (a) and at least a part of the oxygen containing stream obtained by the electrolysis of water and/or steam in step (b) to a process gas comprising hydrogen, carbon monoxide and carbon dioxide; and (d) introducing at least part of the separate hydrogen containing stream from step (b) into the process gas from step wherein the electrolysis is operated such that all of the separate hydrogen containing stream produced in step (b) is added to the process gas from step and the module M, where M=(H2-CO2)/(CO+CO2), of the resulting mixture of hydrogen and the process gas from step is between 1.9 and 2.2 or preferably between 2 and 2.1.
A binder resin composition comprising an aliphatic polycarbonate resin represented by the formula: wherein each of R 1, R 2, R 3, and R 4, which may be identical or different, is a hydrogen atom, an alkyl group having from 1 to 10 carbon atoms, or an aryl group having from 6 to 20 carbon atoms; and m is an integer of from 40 to 23,000, and an end-capped aliphatic polycarbonate resin represented by the formula: wherein each of R 5, R 6, R 7 and R 8, which may be identical or different, is a hydrogen atom, an alkyl group having from 1 to 10 carbon atoms, or an aryl group having from 6 to 20 carbon atoms; each of X and Y, which may be identical or different, is a group having at least one functional group selected from a carboxy group, an ester group, a carbamate group, a silicate group, an isocyanate group, an ether group, an acetal group, and a halogen atom at its end; and n is an integer of from 40 to 23,000, wherein the mass ratio of the aliphatic polycarbonate represented by the formula /end-capped aliphatic polycarbonate resin represented by the formula is from 10/90 to 90/10.
Spray boom for an agricultural distributing machine, with a plurality of boom portions (2, 3, 4, 5, 6, 7, 8) which can be folded up with respect to one another into a transport position and unfolded with respect to one another into a working position, and with end portions (7, 8) which are arranged by means of deflecting joints on each side of the spray boom so as to be deflectable about vertical axes counter to a yielding locking device, configured as a hydraulic cylinder having a piston rod (16.2), and/or spring device in the forwards and/or rearwards direction with respect to the direction of travel upon striking against obstacles, wherein the locking device and/or spring device are/is arranged between the respective end portion (7, 8) of the boom and the respective adjacent inner boom portion (5, 6) and hold/holds the respective end portions (7, 8) so as to be deflectable in relation to the inner boom portions (5, 6), characterized in that the piston rod (16.2) is operatively connected to the end portion (7, 8) of the boom or the adjacent inner boom portion (5, 6) via an intermediate element (16.3), in that the intermediate element (16.3) is connected movably to the piston rod (16.2).
Electrical assembly intended to be mounted in an electrical equipment, said assembly comprising: a first subassembly comprising a first support, corresponding to a cooling module, an active part comprising a power electronics module of an inverter and a first busbar intended to connect said active part to at least a first terminal of the electrical equipment, said active part and said first busbar being mounted on said first support, a second subassembly comprising a second support, notably in the form of a plate, and an electronic board corresponding to an electronic control board of the inverter and configured to control said active part, said electronic board being mounted on said second support, the second support comprising fixing zones, a third subassembly comprising a third support and a second busbar, said busbar being mounted on said third support, the third support comprising fixing zones, said second subassembly being fixed to the third subassembly in the fixing zones and the first subassembly being fixed to the second subassembly in the fixing zones so as to form a one-piece electrical assembly, said third support forming a cover for a housing of an electrical equipment, a first face of the second subassembly facing one face of the first subassembly, and a face of the third subassembly facing a second face of the second subassembly, said second face being the opposite face to the first face, so that the first, second and third subassemblies (1, 2, 3) form a stack on top of said face of the third subassembly. a first subassembly comprising a first support, corresponding to a cooling module, an active part comprising a power electronics module of an inverter and a first busbar intended to connect said active part to at least a first terminal of the electrical equipment, said active part and said first busbar being mounted on said first support, a second subassembly comprising a second support, notably in the form of a plate, and an electronic board corresponding to an electronic control board of the inverter and configured to control said active part, said electronic board being mounted on said second support, the second support comprising fixing zones, a third subassembly comprising a third support and a second busbar, said busbar being mounted on said third support, the third support comprising fixing zones, said second subassembly being fixed to the third subassembly in the fixing zones and the first subassembly being fixed to the second subassembly in the fixing zones so as to form a one-piece electrical assembly, said third support forming a cover for a housing of an electrical equipment, a first face of the second subassembly facing one face of the first subassembly, and a face of the third subassembly facing a second face of the second subassembly, said second face being the opposite face to the first face, so that the first, second and third subassemblies (1, 2, 3) form a stack on top of said face of the third subassembly.
An ankle prosthesis comprising: ▪ a main body, having a foot portion configured to rest on a walking surface; ▪ stump supporting means, configured to couple with a leg prosthetic element; ▪ linear actuation means, comprising a coupling between a screw element and a nut screw element having a friction coefficient lower than 0.16, wherein said stump supporting means, said screw element and said nut screw element are constrained to said main body according to a substantially four-bar linkage configuration, so that a relative rotation between said supporting means and said main body is allowed and so that said actuation means is configured to act as damping element along a damping direction and is movable between an advanced position (P sup) and a rearward position (Pint) with respect to said damping direction, wherein said foot portion comprises a first and a second contact position during a resting phase on the walking surface, wherein to said first and second contact position corresponds a respective opposite movement of said actuation means between said advanced position (P sup) and said rearward position (P inf) during a damping condition of the loads transferred on said main body by the leg element. ▪ a main body, having a foot portion configured to rest on a walking surface; ▪ stump supporting means, configured to couple with a leg prosthetic element; ▪ linear actuation means, comprising a coupling between a screw element and a nut screw element having a friction coefficient lower than 0.16,
A suspension arrangement for terminals (2, 3) for electrical resistive elements, which terminals pass vertically through a body and are attached relative to the upper surface of the body, which terminals (2, 3) pass over into the hot zone of the resistive element in the form of a shank element, which extends downwards from the terminals (2, 3), where one or several of the shanks (7, 8) of the hot zone is or are supported by hooks (9, 10) attached to the lower surface of the body, characterised in that the suspension arrangement for each one of the terminals (2, 3) comprises a first attachment attached relative to the upper surface of the body and a second attachment (13, 14) attached relative to the terminal (2, 3), and where a spring arrangement passes between the first and the second (13, 14) attachment, which spring arrangement is arranged such that the second attachment (13, 14) is mobile in the vertical direction relative to the first attachment.
An Fc-containing molecule comprising a modified antibody Fc domain amino acid sequence with N-glycosylation sites at the ends of loop structures in the CH3 domain, wherein the Fc-containing molecule has increased resistance to protease, as compared to Fc-containing molecules having the analogous unmodified antibody Fc domain amino acid sequence.
Method for forming a driving lane in the longitudinal direction of a vehicle in a vehicle test stand, wherein the driving lane includes at least one displaceable wheel receiving area (101; 201), wherein the wheel receiving area (101; 201) is displaceable to the position of one of the wheels assigned to the at least one wheel receiving area (101: 201) of a vehicle to be tested in the vehicle test stand, wherein the assignment occurs in such a manner that the respective vehicle wheel stands or rolls on the wheel receiving area (101; 201) during the test procedure in the vehicle test stand, wherein the vehicle test stand comprises support elements (104, 106; 204, 206), which are located in the driving lane of the vehicle, and supportingly bear the vehicle while driving over or while stopping, wherein the support elements (104, 106; 204, 206) and the at least one wheel receiving area (101; 201) adjoin to one another in such a manner that they form a driving lane for driving in, and also for driving out a vehicle to be tested into the vehicle test stand, or out of the vehicle test stand, characterized in that the support elements (104, 105, 106, 107, 109; 204, 205, 206) are segmented in the longitudinal direction of the vehicle in such a manner that these support elements (104, 105, 106, 107, 109; 204, 205, 206) are each separately moveable in a direction (108, 110; 207) transverse to the longitudinal direction of the vehicle, wherein, for the altering of the position of the at least one wheel receiving area (101; 201) in the vehicle test stand in the longitudinal direction of the vehicle, those support elements (105, 109; 205), which are located between the current actual position of the wheel receiving area (101; 201) and the next target position of the wheel receiving area (101; 201) to be steered to in the driving lane, are moved out of the driving lane.
Composite fire protection material for an apparatus container, comprising - an insulative layer, which comprises an insulating layer former which is a material which foams on exposure to heat, - a cooling-capable layer, which comprises an ablative fire protection material, and - an absorptive layer, which is able to take up water which is released from the ablative fire protection material, where - the cooling-capable layer is disposed between the insulative layer and the absorptive layer. - an insulative layer, which comprises an insulating layer former which is a material which foams on exposure to heat, - a cooling-capable layer, which comprises an ablative fire protection material, and - an absorptive layer, which is able to take up water which is released from the ablative fire protection material, where - the cooling-capable layer is disposed between the insulative layer and the absorptive layer.